Abstract: A sensor module is provided in which a sensor which can be more easily attached to a structure than conventionally and can also suppress variation in attachment quality. The sensor module includes an elastic layer, a sensor arranged above at last one part of the elastic layer and configured to detect a physical quantity related to the properties of a structure, and a film layer arranged above the elastic layer and attached with the sensor.

Abstract: The purpose of the present invention is to make it possible to reuse drying retardant which was used for supercritical drying.

Abstract: A dynamic quantity sensor includes a first substrate, a fixed part arranged in the first substrate, a spiral shaped movable electrode arranged separated from the first substrate, one end of the spiral shaped movable electrode being supported by the fixed part, a fixed electrode positioned on the periphery of the movable electrode and arranged in a detection direction of a dynamic quantity, and a first terminal electrically connected to the fixed part and a second terminal electrically connected to the fixed electrode.

Abstract: A dynamic quantity sensor includes a first substrate, a fixed part arranged in the first substrate, a spiral shaped movable electrode arranged separated from the first substrate, one end of the spiral shaped movable electrode being supported by the fixed part, a fixed electrode positioned on the periphery of the movable electrode and arranged in a detection direction of a dynamic quantity, and a first terminal electrically connected to the fixed part and a second terminal electrically connected to the fixed electrode.

Abstract: The present invention relates to a thermal processing method includes a first thermal processing step that carries out thermal processing steps using a plurality of first substrates, wherein thin films are formed on surfaces of the plurality of first substrates by means of less consumption of the process gas than on surfaces of production substrates. Then, a second thermal processing step carries out thermal processing steps by using a plurality of second substrates, wherein thin films are formed on surfaces of the plurality of second substrates by means of more consumption of the process gas than on the surfaces of the plurality of first substrates, and wherein heating units are respectively adjusted to respective temperature set values set during the previous step.

Abstract: A method for oxidation of an object to be processed is provided wherein an oxide film can provide favorable film quality and a laminate structure of nitride film and oxide film can be obtained by a thermal oxidation of a nitride film. In a method for oxidation of a surface of an object to be processed in a single processing container 8 which can contain a plurality of objects to be processed, at least a nitride film is exposed on said surface, and said oxidation is performed by mainly using active hydroxyl/oxygen species in a vacuum atmosphere, setting a processing pressure to 133 Pa or below, and setting a processing temperature to 400° C. or above. Under these conditions, high interplanar uniformity is maintained and oxide films with favorable film quality are obtained by oxidizing nitride films on the surfaces of a plurality of objects to be processed.

Abstract: A method for oxidation of an object to be processed is provided wherein an oxide film can provide favorable film quality and a laminate structure of nitride film and oxide film can be obtained by a thermal oxidation of a nitride film. In a method for oxidation of a surface of an object to be processed in a single processing container 8 which can contain a plurality of objects to be processed, at least a nitride film is exposed on said surface, and said oxidation is performed by mainly using active hydroxyl/oxygen species in a vacuum atmosphere, setting a processing pressure to 133 Pa or below, and setting a processing temperature to 400° C. or above. Under these conditions, high interplanar uniformity is maintained and oxide films with favorable film quality are obtained by oxidizing nitride films on the surfaces of a plurality of objects to be processed.

Abstract: A method of processing a semiconductor substrate includes a step of forming a trench (16) in a surface of the substrate, by etching the substrate (W), and a step of rounding a corner (10) of the substrate formed at a mouth of the trench (16), by heat-processing the substrate (W). The step of rounding the corner (10) includes a first heat process performed in a hydrogen gas atmosphere with a process temperature T set to be 850° C.<T<1,050° C., and a process pressure P set to be 0.01 kPa<P<30 kPa.

Abstract: The present invention relates to a thermal processing method including thermal processing steps having: a step of holding a plurality of substrates by means of a substrate holder, a step of conveying the substrate holder into a reaction container, a step of heating a plurality of zones of thermal process atmosphere in the reaction container by means of a plurality of heating units, respectively, and a step of forming thin films on surfaces of the plurality of substrates by introducing a process gas into the reaction container.

Abstract: A manufacturing method for semiconductor devices that can improve uniformity in the surface of a silicon nitride film or a nitride film to be formed and improve production efficiency is provided. A step of forming a first film that is a silicon oxide film or a silicon oxynitride film on a silicon substrate, a step of forming a second film that is a tetrachlorosilane monomolecular layer, and a step of forming a third film that is a silicon nitride monomolecular layer by performing a nitriding process on the second film are included. A silicon nitride film having a predetermined film thickness is formed by repeating the step of forming the second film and the step of forming the third film for a predetermined number of times. In a manufacturing apparatus, a plurality of silicon substrates are arranged on a stair-like wafer boat, and a process gas is supplied toward the upper side of a reaction tube from a process gas supply pipe.

Abstract: A method of processing a semiconductor substrate includes a step of forming a trench (16) in a surface of the substrate, by etching the substrate (W), and a step of rounding a corner (10) of the substrate formed at a mouth of the trench (16), by heat-processing the substrate (W). The step of rounding the corner (10) includes a first heat process performed in a hydrogen gas atmosphere with a process temperature T set to be 850° C.<T<1,050° C., and a process pressure P set to be 0.01 kPa<P<30 kPa.

Abstract: A manufacturing method for semiconductor devices that can improve uniformity in the surface of a silicon nitride film or a nitride film to be formed and improve production efficiency is provided. A step of forming a first film that is a silicon oxide film or a silicon oxynitride film on a silicon substrate, a step of forming a second film that is a tetrachlorosilane monomolecular layer, and a step of forming a third film that is a silicon nitride monomolecular layer by performing a nitriding process on the second film are included. A silicon nitride film having a predetermined film thickness is formed by repeating the step of forming the second film and the step of forming the third film for a predetermined number of times. In a manufacturing apparatus, a plurality of silicon substrates are arranged on a stair-like wafer boat, and a process gas is supplied toward the upper side of a reaction tube from a process gas supply pipe.