Abstract: An analysis device includes: a vibration image generation unit configured to generate, based on an image in which an inspection target is photographed, a vibration image visualizing a vibration level per region of the inspection target on the image at a first natural vibration frequency at which a peak of the vibration level appears; a sound source image generation unit configured to generate, based on recorded sound data of the inspection target recorded simultaneously with the image, a sound source image visualizing a sound pressure level per region on the image; an extraction unit configured to extract the first natural vibration frequency included within a predetermined range from a second natural vibration frequency at which a peak of the sound pressure level of the noise appears; and an analysis image generation unit configured to generate an analysis image in which the vibration image corresponding to the first natural vibration frequency extracted and the sound source image are superimposed.

Abstract: A moving image data acquisition device includes a camera, a support that supports the camera, and a coupling member that couples the support and the camera, wherein the coupling member has a natural vibration frequency in a vibration frequency region lower than a vibration frequency region serving as a measurement target for vibration measurement using moving image data acquired by the camera.

Abstract: The present invention relates to a substrate treating method and a substrate treating apparatus. The substrate treating method is for treating the substrate. The substrate has a pattern formed on a surface of the substrate. The substrate treating method includes the hydrophilization step, the first supplying step, the solidified film forming step, and the sublimation step. In the hydrophilization step, the hydroxy group is formed on the surface of the substrate. In the first supplying step, the drying auxiliary liquid is supplied to the substrate having the hydroxy group. The drying auxiliary liquid contains the sublimable substance and the first solvent. The sublimable substance contains an organic compound containing an oxime group. In the solidified film forming step, the first solvent evaporates from the drying auxiliary liquid on the substrate. In the solidified film forming step, the solidified film is formed on the substrate. The solidified film contains the sublimable substance.

Abstract: A substrate processing method processes a substrate which has a metal layer on a principal surface. The substrate processing method includes a metal oxide layer forming step in which an oxidizing fluid is supplied toward the principal surface of the substrate, thereby forming a metal oxide layer constituted of one atomic layer or several atomic layers on a surface layer of the metal layer and a metal oxide layer removing step in which an etching fluid containing at least one of water in a gaseous state and water in a mist state as well as a reactive gas that reacts with the metal oxide layer together with the water is supplied toward the principal surface of the substrate, thereby etching the metal oxide layer and selectively removing it from the substrate.

Abstract: A wiring forming method includes a loading step (Si), an etching step (S3), and a reducing step (S6). In the loading step (S1), a substrate having a metal wiring portion formed thereon is loaded into a chamber. In the etching step (S3), an oxidizing gas is supplied to the substrate to etch one part of the metal wiring portion. In the reducing step (S6), a reducing gas is supplied to the substrate to reduce an oxide film of the metal wiring portion formed by the etching step (S3).

Abstract: A substrate processing method includes a substrate holding step of holding a substrate having a front surface on which a metal is exposed, an inert gas replacing step of replacing an atmosphere around the front surface of the substrate with an inert gas by supplying an inert gas to a vicinity of the front surface of the substrate, an adjusting step of adjusting a pH of the rinsing liquid so as to form an inactive state in which the metal does not react with the rinsing liquid or so as to form a passive state by allowing the metal to react with the rinsing liquid, and a rinsing liquid supplying step of supplying the rinsing liquid whose pH has been adjusted to the front surface of the substrate after the atmosphere around the front surface of the substrate has been replaced with the inert gas.

Abstract: A substrate processing method includes a substrate holding step of holding a substrate having a front surface on which a metal is exposed, an inert gas replacing step of replacing an atmosphere around the front surface of the substrate with an inert gas by supplying an inert gas to a vicinity of the front surface of the substrate, an adjusting step of adjusting a pH of the rinsing liquid so as to form an inactive state in which the metal does not react with the rinsing liquid or so as to form a passive state by allowing the metal to react with the rinsing liquid, and a rinsing liquid supplying step of supplying the rinsing liquid whose pH has been adjusted to the front surface of the substrate after the atmosphere around the front surface of the substrate has been replaced with the inert gas.

Abstract: A substrate processing method processes a substrate which has a metal layer on a principal surface. The substrate processing method includes a metal oxide layer forming step in which an oxidizing fluid is supplied toward the principal surface of the substrate, thereby forming a metal oxide layer constituted of one atomic layer or several atomic layers on a surface layer of the metal layer and a metal oxide layer removing step in which an etching fluid containing at least one of water in a gaseous state and water in a mist state as well as a reactive gas that reacts with the metal oxide layer together with the water is supplied toward the principal surface of the substrate, thereby etching the metal oxide layer and selectively removing it from the substrate.

Abstract: The substrate processing apparatus includes common piping which guides a processing liquid to a branching portion, supply piping which guides the processing liquid from the branching portion to a chemical liquid nozzle, return piping which guides the processing liquid from the branching portion, and a discharge valve which changes a flow rate of the processing liquid supplied from the common piping to the branching portion. The discharge valve makes a valve element stationary at a plurality of positions including a discharge execution position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate larger than a maximum value of a suction flow rate and a discharge stop position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate smaller than the maximum value of the suction flow rate.

Abstract: A substrate processing method includes a substrate holding step of holding a substrate having a front surface on which a metal is exposed, an inert gas replacing step of replacing an atmosphere around the front surface of the substrate with an inert gas by supplying an inert gas to a vicinity of the front surface of the substrate, an adjusting step of adjusting a pH of the rinsing liquid so as to form an inactive state in which the metal does not react with the rinsing liquid or so as to form a passive state by allowing the metal to react with the rinsing liquid, and a rinsing liquid supplying step of supplying the rinsing liquid whose pH has been adjusted to the front surface of the substrate after the atmosphere around the front surface of the substrate has been replaced with the inert gas.

Abstract: A substrate in which a low dielectric constant film is formed on a front surface thereof is processed. A densification step of densifying a surface layer portion of the low dielectric constant film to change to a densified layer is executed. Then, after a densified layer forming step, a repair liquid supplying step of supplying a repair liquid, for repairing the densified layer, to a front surface of the low dielectric constant film is executed.

Abstract: A substrate processing method which processes a substrate having a metal layer on a surface thereof includes a metal oxide layer forming step of forming a metal oxide layer formed of one atomic layer or several atomic layers on a surface layer of the metal layer by supplying an oxidizing fluid to the surface of the substrate, and a metal oxide layer removing step of selectively removing the metal oxide layer from the surface of the substrate by supplying an etchant to the surface of the substrate.

Abstract: The substrate processing apparatus includes common piping which guides a processing liquid to a branching portion, supply piping which guides the processing liquid from the branching portion to a chemical liquid nozzle, return piping which guides the processing liquid from the branching portion, and a discharge valve which changes a flow rate of the processing liquid supplied from the common piping to the branching portion. The discharge valve makes a valve element stationary at a plurality of positions including a discharge execution position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate larger than a maximum value of a suction flow rate and a discharge stop position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate smaller than the maximum value of the suction flow rate.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: The substrate processing apparatus includes common piping which guides a processing liquid to a branching portion, supply piping which guides the processing liquid from the branching portion to a chemical liquid nozzle, return piping which guides the processing liquid from the branching portion, and a discharge valve which changes a flow rate of the processing liquid supplied from the common piping to the branching portion. The discharge valve makes a valve element stationary at a plurality of positions including a discharge execution position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate larger than a maximum value of a suction flow rate and a discharge stop position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate smaller than the maximum value of the suction flow rate.

Abstract: A substrate processing apparatus includes a spray nozzle that allows a plurality of liquid droplets to collide with a substrate held by a spin chuck, a liquid piping that supplies a mixed liquid of water and a chemical liquid to the spray nozzle, a first flow control valve and a second flow control valve each of which changes the concentration of the chemical liquid in the mixed liquid, and a controller that causes the liquid piping to supply the mixed liquid having a concentration of the chemical liquid determined in accordance with a substrate to be processed.

Abstract: A substrate in which a low dielectric constant film is formed on a front surface thereof is processed. A densification step of densifying a surface layer portion of the low dielectric constant film to change to a densified layer is executed. Then, after a densified layer forming step, a repair liquid supplying step of supplying a repair liquid, for repairing the densified layer, to a front surface of the low dielectric constant film is executed.

Abstract: A substrate processing method which processes a substrate having a metal layer on a surface thereof includes a metal oxide layer forming step of forming a metal oxide layer formed of one atomic layer or several atomic layers on a surface layer of the metal layer by supplying an oxidizing fluid to the surface of the substrate, and a metal oxide layer removing step of selectively removing the metal oxide layer from the surface of the substrate by supplying an etchant to the surface of the substrate.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: The substrate processing apparatus includes common piping which guides a processing liquid to a branching portion, supply piping which guides the processing liquid from the branching portion to a chemical liquid nozzle, return piping which guides the processing liquid from the branching portion, and a discharge valve which changes a flow rate of the processing liquid supplied from the common piping to the branching portion. The discharge valve makes a valve element stationary at a plurality of positions including a discharge execution position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate larger than a maximum value of a suction flow rate and a discharge stop position at which the processing liquid is supplied from the common piping to the branching portion at a flow rate smaller than the maximum value of the suction flow rate.