Abstract: A method of forming a Cu wiring in a trench or hole formed in a substrate is provided. The method includes forming a barrier film on the surface of the trench or hole, forming a Ru film on the barrier film, and embedding copper in the trench or hole by forming a Cu film on the Ru film using PVD while heating the substrate such that migration of copper into the trench or hole occurs.

Abstract: A semiconductor integrated circuit device (10) which has a layered structure is composed of a plurality of semiconductor layers (L1, L2, L3) in which an integrated circuit is formed on a substrate. Each of the semiconductor layers (L1, L2, L3) has a semiconductor integrated circuit portion (16) that includes the abovementioned integrated circuit on a substrate (11). Each of the semiconductor layers (L1, L2, L3) also has on a substrate at least one unit of through-wiring (17a) for electrically connecting the integrated circuit included in the semiconductor integrated circuit portion (16) to an integrated circuit of another semiconductor layer, and a surrounding insulation portion (18) for surrounding and insulating the through-wiring from the semiconductor integrated circuit portion.

Abstract: A film forming method includes depositing a metal thin film on a target substrate by generating an inductively coupled plasma in a processing chamber while introducing a plasma generating gas in the processing chamber with the substrate disposed on a placing table, by supplying DC power to a metal target from a DC power source, and by applying high-frequency bias to the placing table. A resputtering method includes resputtering the deposited metal thin film by stopping the generating of the inductively coupled plasma, by stopping the power supply from the DC power source, and by applying the high-frequency bias to the placing table while introducing the plasma generating gas in the processing chamber to form a capacitively coupled plasma in the processing chamber and by attracting ions of the plasma generating gas to the target substrate where the metal thin film is deposited.

Abstract: A method of forming a Cu wiring in a trench or hole formed in a substrate is provided. The method includes forming a barrier film on the surface of the trench or hole, forming a Ru film on the barrier film, and embedding copper in the trench or hole by forming a Cu film on the Ru film using PVD while heating the substrate such that migration of copper into the trench or hole occurs.

Abstract: A method of forming a Cu wiring in a trench or hole formed in a substrate is provided. The method includes forming a barrier film on the surface of the trench or hole, forming a Ru film on the barrier film, and embedding Cu in the trench or hole by forming a Cu film on the Ru film using PVD while annealing the substrate such that migration of copper into the trench or hole occurs.

Abstract: A wafer is disposed in a chamber, a plasma generating space is formed in the chamber, plasma processing is performed to the front surface of the processing object while keeping at least the front surface of the processing object in contact with the plasma generating space. The plasma processing is performed with the plasma generating space being kept in contact with at least the peripheral region of the back surface of the processing object.

Abstract: Adhesive injection apparatus, designed to inject an adhesive into gaps between a plurality of layers of flat plate members, includes: a receptacle for holding therein the flat plate members; an evacuation section for evacuating the interior of the receptacle and the gaps between the flat plate members; an adhesive supply section for supplying the adhesive into the receptacle; and a gas introduction section for introducing a gas into the receptacle to produce a pressure difference between the interior of the receptacle and the gaps between the flat plate members, so as to allow the adhesive to be injected from all around the flat plate members into the gaps.

Abstract: A semiconductor integrated circuit device (10) which has a layered structure is composed of a plurality of semiconductor layers (L1, L2, L3) in which an integrated circuit is formed on a substrate. Each of the semiconductor layers (L1, L2, L3) has a semiconductor integrated circuit portion (16) that includes the abovementioned integrated circuit on a substrate (11). Each of the semiconductor layers (L1, L2, L3) also has on a substrate at least one unit of through-wiring (17a) for electrically connecting the integrated circuit included in the semiconductor integrated circuit portion (16) to an integrated circuit of another semiconductor layer, and a surrounding insulation portion (18) for surrounding and insulating the through-wiring from the semiconductor integrated circuit portion.

Abstract: A semiconductor device manufacturing method capable of preventing an infliction of damage upon an interlayer insulating film and moisture adsorption thereto due to opening to atmosphere in a process of forming a CuSiN barrier by infiltrating Si into a surface of a copper-containing metal film and nitrifying a Si-infiltrated portion is disclosed. When a semiconductor device is manufactured through the processes of preparing a semiconductor substrate having a copper-containing metal film exposed on a surface thereof; purifying a surface of the copper-containing metal film by using radicals or by using a thermo-chemical method; infiltrating Si into the surface of the copper-containing metal film; and nitrifying a Si-infiltrated portion of the copper-containing metal film by radicals, the purification process, the Si introduction process and the nitrification process are successively performed without breaking a vacuum.

Abstract: According to an aspect of the present invention, there is provided a simulation circuit pattern evaluation method including: designing an aggregate of simulation circuit patterns, which simulate a circuit pattern of a semiconductor integrated circuit, by combining plural geometrical structure defining parameters respectively having at least two states in such a manner that the respective states appear the same number of times in the respective geometrical structure defining parameters; forming the aggregate of the simulation circuit patterns on a substrate; and evaluating the formed aggregate of the simulation circuit patterns.

Abstract: Adhesive injection apparatus, designed to inject an adhesive into gaps between a plurality of layers of flat plate members, includes: a receptacle for holding therein the flat plate members; an evacuation section for evacuating the interior of the receptacle and the gaps between the flat plate members; an adhesive supply section for supplying the adhesive into the receptacle; and a gas introduction section for introducing a gas into the receptacle to produce a pressure difference between the interior of the receptacle and the gaps between the flat plate members, so as to allow the adhesive to be injected from all around the flat plate members into the gaps.

Abstract: According to an aspect of the present invention, there is provided a simulation circuit pattern evaluation method including: designing an aggregate of simulation circuit patterns, which simulate a circuit pattern of a semiconductor integrated circuit, by combining plural geometrical structure defining parameters respectively having at least two states in such a manner that the respective states appear the same number of times in the respective geometrical structure defining parameters; forming the aggregate of the simulation circuit patterns on a substrate; and evaluating the formed aggregate of the simulation circuit patterns.