Abstract: An information processing apparatus is provided. The apparatus detects, from a medium, identification information for identifying 3D model data representing 3D models of an object respectively corresponding to a plurality of timecodes. The apparatus accepts a user operation to designate a timecode of a display target. The apparatus causes a display to display an image of the object based on a 3D model of the object corresponding to the timecode in accordance with the identification information and the user operation. The apparatus records, in accordance with a user operation, a virtual image to be synthesized with a captured image. The virtual image includes the image of the object displayed on the display.

Abstract: An information processing system includes one or more memories storing instructions, and one or more processors executing the instructions to acquire a plurality of three-dimensional models generated based on a plurality of captured images obtained by concurrently capturing objects each corresponding to a respective image capturing project of a plurality of image capturing projects, and acquire position information of a capture area corresponding to each of the plurality of image capturing projects, associate, based on the plurality of three-dimensional models and the position information, each of the plurality of image capturing projects with a three-dimensional model existing within the capture area corresponding to the image capturing project, and output information indicating a combination of the associated image capturing project and the three-dimensional model.

Abstract: A container body configured by integrally forming from a material having a low hardness and a high elongation: a hollow receptacle portion configured to receive a biological fluid; a hollow introduction portion configured to communicate with one side of the receptacle portion and including an introduction port part for introducing the biological fluid; a hollow outlet portion configured to communicate with an other side of the receptacle portion and including an outlet port part for discharging the biological fluid; a hollow guide portion formed at a region at which the receptacle portion and the introduction portion communicate with each other toward an interior of the receptacle portion and configured to guide the biological fluid into the receptacle portion; and a check valve portion formed at the guide portion and configured to prevent backflow of the biological fluid, in which the receptacle portion includes a high elongation region having an elongation higher than an elongation of any region of the intr

Abstract: In an image-forming apparatus, a first sensor measures a first temperature and a relative humidity. A second sensor measures a second temperature. A controller is configured to perform: (a) calculating; (b) determining; and (c) executing. The (a) calculating calculates an internal temperature on the basis of the second temperature. The (a) calculating includes: when a target temperature of a heater is set to a printing temperature: (a-1) determining; and (a-2) correcting. The (a-2) correcting corrects, in response to determining in (a-1) that a temperature increase in the first temperature is greater than or equal to a first prescribed value and a humidity increase in an absolute humidity is greater than or equal to a second prescribed value, the internal temperature. The (c) executing executes, in response to determining in (b) that the internal temperature is greater than a threshold, a cool-down process to reduce a temperature inside a main casing.

Abstract: An image forming apparatus, having a main body housing including an air outlet opening, a photosensitive drum, a fuser to thermally fix toner transferred from the photosensitive drum to a sheet on the sheet, a fan to generate an airflow toward the air outlet opening, and a controller, is provided. The controller is configured to, in a continuous stage of printing continuous from a beginning stage, count a cumulative printed page number being a cumulative number of pages printed by the image forming apparatus, in a case where the cumulative printed page number is smaller than a first page number, control the fan to rotate at a first speed, and in a case where the cumulative printed page number is equal to or larger than the first page number, control the fan to rotate at a second speed, the second speed being higher than the first speed.

Abstract: In an image-forming apparatus, a first sensor measures a first temperature and a relative humidity. A second sensor measures a second temperature. A controller is configured to perform: (a) calculating; (b) determining; and (c) executing. The (a) calculating calculates an internal temperature on the basis of the second temperature. The (a) calculating includes: when a target temperature of a heater is set to a printing temperature: (a-1) determining; and (a-2) correcting. The (a-2) correcting corrects, in response to determining in (a-1) that a temperature increase in the first temperature is greater than or equal to a first prescribed value and a humidity increase in an absolute humidity is greater than or equal to a second prescribed value, the internal temperature. The (c) executing executes, in response to determining in (b) that the internal temperature is greater than a threshold, a cool-down process to reduce a temperature inside a main casing.

Abstract: An image forming apparatus, having a main body housing including an air outlet opening, a photosensitive drum, a fuser to thermally fix toner transferred from the photosensitive drum to a sheet on the sheet, a fan to generate an airflow toward the air outlet opening, and a controller, is provided. The controller is configured to, in a continuous stage of printing continuous from a beginning stage, count a cumulative printed page number being a cumulative number of pages printed by the image forming apparatus, in a case where the cumulative printed page number is smaller than a first page number, control the fan to rotate at a first speed, and in a case where the cumulative printed page number is equal to or larger than the first page number, control the fan to rotate at a second speed, the second speed being higher than the first speed.

Abstract: To provide a method for inspecting a gas leak from a fuel cell stack, whereby a leak position can be efficiently identified in a short time. A method for inspecting a gas leak from a fuel cell stack includes a jig installation step of installing a division jig that covers an outer surface, on which stacked end faces of the fuel cell stack are exposed, that divides the outer surface into a plurality of regions, and that includes a plurality of inspection spaces on each divided region. The method further includes a first leak inspection step of identifying a leak region, in which the gas leak occurs, with a gas sensor arranged in each of the inspection spaces.

Abstract: To provide a method for inspecting a gas leak from a fuel cell stack, whereby a leak position can be easily identified in a short time. A method for inspecting a gas leak from a fuel cell stack includes a preparation step of arranging stacked end faces of the fuel cell stack so as to be exposed on a side surface, a jig installation step of installing an inspection jig including a space for detecting the gas leak from the side surface so as to cover the side surface, a gas leak measurement step of detecting the gas leak with a gas sensor arranged in an upper part in the space, and a position identification step of identifying a leak position in a height direction from a detection start time of the gas sensor.

Abstract: To provide a method for inspecting a gas leak from a fuel cell stack, whereby a leak position can be efficiently identified in a short time. A method for inspecting a gas leak from a fuel cell stack includes a jig installation step of installing a division jig that covers an outer surface, on which stacked end faces of the fuel cell stack are exposed, that divides the outer surface into a plurality of regions, and that includes a plurality of inspection spaces on each divided region. The method further includes a first leak inspection step of identifying a leak region, in which the gas leak occurs, with a gas sensor arranged in each of the inspection spaces.

Abstract: A fuel cell includes a power generation unit. A first resin frame member is provided in an outer portion of a first membrane electrode assembly of the power generation unit. The first metal separator has a heating portion subjected to spot heating from a surface of the first metal separator for allowing the first resin frame member to be melted partially. The first metal separator and the first membrane electrode assembly are welded together by a plurality of welding portions to form a first structural body.

Abstract: Provided are a method of producing a conductive cured material applicable even to a heat-sensitive substrate while achieving rapid curability, a conductive cured material, a method of curing a pulse light-curable composition, and a pulse light-curable composition. A conductive cured material is formed by application of pulsed light to a composition including: (A) at least one moisture-curable resin selected from the group consisting of an organic polymer containing a cross-linkable silicon-containing group and a moisture-curable urethane-based organic polymer; (B) a conductive filler; and (C) a condensation catalyst.

Abstract: A membrane electrode assembly for a fuel cell includes a membrane electrode assembly and a resin frame member. The membrane electrode assembly includes a solid polymer electrolyte membrane, a first electrode, and a second electrode. The first electrode includes a first catalyst layer and a first gas diffusion layer. The second electrode includes a second catalyst layer and a second gas diffusion layer. The resin frame member includes an outer peripheral portion and an inner peripheral projection. A first space includes a gap between an outer peripheral end face of the second gas diffusion layer and an inner-side end face of the inner peripheral projection. A second space includes a gap between an outer peripheral end face of the first gas diffusion layer and an inner-side wall face of the outer peripheral portion. The first space has a dimension different from a dimension of the second space.

Abstract: A fuel cell includes a power generation unit. A first resin frame member is provided in an outer portion of a first membrane electrode assembly of the power generation unit. The first metal separator has a heating portion subjected to spot heating from a surface of the first metal separator for allowing the first resin frame member to be melted partially. The first metal separator and the first membrane electrode assembly are welded together by a plurality of welding portions to form a first structural body.

Abstract: A membrane electrode assembly for a fuel cell includes a membrane electrode assembly and a resin frame member. The membrane electrode assembly includes a solid polymer electrolyte membrane, a first electrode, and a second electrode. The first electrode includes a first catalyst layer and a first gas diffusion layer. The second electrode includes a second catalyst layer and a second gas diffusion layer. The resin frame member includes an outer peripheral portion and an inner peripheral projection. A first space includes a gap between an outer peripheral end face of the second gas diffusion layer and an inner-side end face of the inner peripheral projection. A second space includes a gap between an outer peripheral end face of the first gas diffusion layer and an inner-side wall face of the outer peripheral portion. The first space has a dimension different from a dimension of the second space.