Abstract: A sensor device includes multiple sensors, a controller, and multiple communication paths. Each of the sensors includes a sensor element and a sensor-side communication circuit. The sensor element detects a change in a physical quantity. The sensor-side communication circuit transmits a signal having a response signal according to a detected value of the sensor element, in response to a request signal transmitted by a controller. The controller includes a controller-side communication circuit and an arithmetic processing unit. The controller-side communication circuit transmits the request signal and receives the response signal. The arithmetic processing units calculates detection data according to the response signal. The communication paths respectively connect the sensors to the controller. The arithmetic processing unit calculates detection data by adopting respective response signals in parallel acquired from the sensors.

Abstract: A cell culture container is provided which is filled with a cell culture substrate (14) including a gel layer formed of a gel (15) capable of being denatured by heating and a gold nanoparticle layer (13) formed on one surface of the gel layer, in which a cell is cultured on a side of the one surface or a side of the other surface in the cell culture substrate. A method for manufacturing a cell culture container, including: a step of filling the cell culture container with a gel capable of being denatured by heating; and a step of forming a gold nanoparticle layer on one surface of the gel. A method for acquiring a cell, including: a step of selecting a cell to be acquired from cells placed in the cell culture container; a step of irradiating a cell culture substrate in the vicinity of the selected cell with light; and a step of recovering the selected cell.

Abstract: A cell culture container may include an inlet through which a fluid is supplied, an outlet through which a fluid is discharged, and a flow path configured to connect the inlet to the outlet and accommodate a cell culture substrate containing gold nanoparticles and capable of being denatured by heating.

Abstract: An article for a living body or a biological sample is provided, the article including a first film and a second film, in which the first film includes an amorphous carbon film in which a proportion of the number of carbon atoms having an sp2-hybrid orbital to a total number of carbon atoms having an sp2-hybrid orbital and carbon atoms having an sp3-hybrid orbital is in a range of 23 to 43 atom % or a titanium-doped amorphous carbon film in which a proportion of the number of titanium atoms to the number of carbon atoms is in a range of 3 to 12 atom %, and the second film includes any one film selected from an amorphous carbon film in which a static contact angle with pure water is 10° or less, a titanium-doped amorphous carbon film in which a proportion of the number of titanium atoms to the number of carbon atoms is less than 3 atom % or greater than 12 atom %, or a titanium-doped amorphous carbon film in which a static contact angle with pure water is 10° or less.

Abstract: Provided is a determination device including a determining section that determines a state of a cell, using information relating to uniformity of a detection target generated based on an optical intensity of radiation light from the detection target included in a biological cell irradiated with excitation light. In the determination device, the detection target may be proteins. The determination device may include an information generating section that generated information, and the information generating section may generate information that excludes information corresponding to a non-resonant background signal.

Abstract: There is provided a sliding film formed on a surface of a member which slides relative to another member. The sliding film includes, a metal-doped tetrahedral amorphous carbon layer; and a surface layer that is formed on top of the metal-doped tetrahedral amorphous carbon layer and has a higher coefficient of kinetic friction than the metal-doped tetrahedral amorphous carbon layer.

Abstract: A functional film that is applied to a surface of a medical apparatus or a biomaterial includes a film of Ti-doped tetrahedral amorphous carbon (ta-C:Ti film).

Abstract: A composite plastic member includes a first stacked body comprised of a plurality of chromium layers stacked on a plastic substrate; and a second stacked body comprised of a plurality of chromium nitride layers stacked on the first stacked body. Each of the first and second stacked bodies is formed such that a lower-hardness layer having a lower hardness than upper and lower layers which contact with and sandwich the lower-hardness layer therebetween and a higher-hardness layer having a higher hardness than upper and lower layers which contact with and sandwich the higher-hardness layer therebetween are alternately stacked in a stacking direction; and a thickness of a higher-hardness chromium nitride layer is not more than 40% of a thickness of a lower-hardness chromium nitride layer in the second stacked body. The composite plastic member has high wear resistance and satisfactory sliding performance, and the conductivity and excellent outer appearance.

Abstract: A functional film that is applied to a surface of a medical apparatus or a biomaterial includes a film of Ti-doped tetrahedral amorphous carbon (ta-C:Ti film).

Abstract: There is provided a sliding film formed on a surface of a member which slides relative to another member. The sliding film includes, a metal-doped tetrahedral amorphous carbon layer; and a surface layer that is formed on top of the metal-doped tetrahedral amorphous carbon layer and has a higher coefficient of kinetic friction than the metal-doped tetrahedral amorphous carbon layer.

Abstract: A mesh member including a base material having a mesh portion and a film of Ti-doped tetrahedral amorphous carbon coated on the mesh portion. An atomic ratio of Ti to C in a composition of the film (ta-C:Ti film) is equal to or greater than 0.03 and equal to or less than 0.09. The atomic ratio of Ti to C is equal to a number of Ti atoms occupying the film divided by a sum of a number of carbon atoms having an sp3 hybrid orbital and a number of carbon atoms having an sp2 hybrid orbital occupying the film.

Abstract: A functional film which is applied to a surface of a base material includes a film of Ti-doped tetrahedral amorphous carbon (ta-C:Ti film).

Abstract: A functional film which is applied to a surface of a base material includes a film of Ti-doped tetrahedral amorphous carbon (ta-C:Ti film).

Abstract: A method of manufacturing a zinc oxide thin film includes: preparing a basic solution containing tetrahydroxozincate (II) ions and having a pH of 10 or more; diluting the basic solution such that the pH becomes 8.5 or less; applying the basic solution to a substrate; and heating the basic solution.

Abstract: A composite plastic member includes a first stacked body comprised of a plurality of chromium layers stacked on a plastic substrate; and a second stacked body comprised of a plurality of chromium nitride layers stacked on the first stacked body. Each of the first and second stacked bodies is formed such that a lower-hardness layer having a lower hardness than upper and lower layers which contact with and sandwich the lower-hardness layer therebetween and a higher-hardness layer having a higher hardness than upper and lower layers which contact with and sandwich the higher-hardness layer therebetween are alternately stacked in a stacking direction; and a thickness of a higher-hardness chromium nitride layer is not more than 40% of a thickness of a lower-hardness chromium nitride layer in the second stacked body. The composite plastic member has high wear resistance and satisfactory sliding performance, and the conductivity and excellent outer appearance.

Abstract: A liquid immersion member holds liquid between the liquid immersion member and an object such that an optical path of exposure light applied to the object is filled with the liquid, thereby forming a liquid immersion space. In the liquid immersion member, an amorphous carbon film is formed on at least a part of a region coming into contact with the liquid.

Abstract: A method for manufacturing a carbon nanotube assembly including the steps of: forming metallic fine particles, having a predetermined particle diameter, on a substrate; heating the metallic fine particles to a predetermined temperature of 300° C. to 400° C. in a reducing atmosphere to cause reduction at surfaces thereof; heating the metallic fine particles to a predetermined reaction temperature in a reactor; and introducing an organic compound vapor into the reactor to grow carbon nanotubes on the metallic fine particles in such a way that a time during which the temperature of the metallic fine particles exceeds 450° C. is 600 seconds or fewer for the period of time before the growth of the carbon nanotubes is started after the heating of the metallic fine particles is started.

Abstract: Upon fixing fine particulate active element members, which are carbon nanotube, rod-shaped semiconductor crystal, or the like, in an electronic device at predetermined positions thereof respectively, a method for producing an electronic device includes: dispersing the fine particulate active element members in a dielectric liquid and filling the liquid in a space between a process-objective substrate and a mask which is placed opposite to the substrate and which has predetermined pattern electrodes formed therein; and applying a predetermined voltage to the predetermined electrodes to concentrate the fine particulate active element members at positions which correspond to positions of the pattern electrodes, respectively. In this state, a light is irradiated to the substrate and the fine particulate active element members in the liquid so as to fix the fine particulate active element members to the substrate by a photochemical reaction.

Abstract: A method for producing a carbon nanotube assembly, the method controlling a growth density of carbon nanotubes on a substrate, includes: a step for preparing a catalyst particle dispersed film-formed substrate including a catalyst particle dispersed film in which metal catalyst particles having a predetermined particle diameter are dispersed among barrier particles; and a thermal CVD step for growing carbon nanotubes from the metal catalyst particles serving as starting points by heat decomposition of an organic compound vapor.

Abstract: A method for manufacturing a carbon nanotube assembly including the steps of: forming metallic fine particles, having a predetermined particle diameter, on a substrate; heating the metallic fine particles to a predetermined temperature of 300° C. to 400° C. in a reducing atmosphere to cause reduction at surfaces thereof; heating the metallic fine particles to a predetermined reaction temperature in a reactor; and introducing an organic compound vapor into the reactor to grow carbon nanotubes on the metallic fine particles in such a way that a time during which the temperature of the metallic fine particles exceeds 450° C. is 600 seconds or fewer for the period of time before the growth of the carbon nanotubes is started after the heating of the metallic fine particles is started.