Abstract: A microchannel device includes: a channel unit which is configured of a plurality of channel members which are laminated in a thickness direction to define a microchannel, at least one of the channel members being made of a material having elasticity; and a holding member which is provided separately from or integrally with the channel unit and holds the channel unit in a state of being compressed in the thickness direction.

Abstract: Provided is a microchannel device including a first microchannel that is formed in a first channel member, a second microchannel that is formed in a second channel member and at least a portion of which overlaps the first microchannel in plan view with a step portion formed between the first microchannel and the second microchannel, a porous membrane that has a plurality of holes penetrating the porous membrane in a thickness direction and is disposed between the first channel member and the second channel member to partition the first microchannel and the second microchannel, and a reinforcing member that is provided between the first channel member or the second channel member and the porous membrane, is higher in stiffness than the porous membrane, and reinforces at least a portion of the porous membrane that faces the step portion.

Abstract: A medicine-holding body is disposed in a flow path of a nozzle portion of an adapter for blood dispensing. The medicine-holding body is formed of a plurality of fibers which is made of polyester and is bundled by aligning a longitudinal direction thereof in a flowing direction which is a direction in which blood flows. The medicine-holding body holds an anticoagulant for suppressing coagulation of blood, as a medicine to be mixed into blood. The surface area of the medicine-holding body is greater than or equal to 10 mm2 and less than 600 mm2. In a case where the surface area of the medicine-holding body is greater than or equal to 10 mm2, the concentration of the anticoagulant becomes greater than or equal to a lower limit value of 10 U/mL even under most severe conditions such as a dispensing speed of 500 ?L/second. In a case where the surface area of the medicine-holding body is less than 600 mm2, it is possible to maintain the occurrence rate of hemolysis to be less than or equal to 10%.

Abstract: A microchannel device includes: a channel unit which is configured of a plurality of channel members which are laminated in a thickness direction to define a microchannel, at least one of the channel members being made of a material having elasticity; and a holding member which is provided separately from or integrally with the channel unit and holds the channel unit in a state of being compressed in the thickness direction.

Abstract: A housing case that includes an inspection strip, a first pot in which a first amplification liquid is sealed, and a second pot in which a second amplification liquid is sealed, includes a lower case, an upper case, and an intermediate member disposed therebetween, in which the upper case includes, on a part facing the first pot, a first protrusive deforming portion that deforms towards a side of the first pot when applied with pressing force from outside, whereby a tearing portion of the intermediate member tears a sheet member of the first pot, and includes, at a part facing the second pot, a second protrusive deforming portion that deforms towards a side of the second pot when applied with pressing force from outside, whereby a sheet member of the second pot is torn.

Abstract: A housing case that includes an inspection strip, a first pot in which a first amplification liquid is sealed, and a second pot in which a second amplification liquid is sealed, includes a lower case, an upper case, and an intermediate member disposed therebetween, in which the upper case includes, on a part facing the first pot, a first protrusive deforming portion that deforms towards a side of the first pot when applied with pressing force from outside, whereby a tearing portion of the intermediate member tears a sheet member of the first pot, and includes, at a part facing the second pot, a second protrusive deforming portion that deforms towards a side of the second pot when applied with pressing force from outside, whereby a sheet member of the second pot is torn.

Abstract: A medicine-holding body is disposed in a flow path of a nozzle portion of an adapter for blood dispensing. The medicine-holding body is formed of a plurality of fibers which is made of polyester and is bundled by aligning a longitudinal direction thereof in a flowing direction which is a direction in which blood flows. The medicine-holding body holds an anticoagulant for suppressing coagulation of blood, as a medicine to be mixed into blood. The surface area of the medicine-holding body is greater than or equal to 10 mm2 and less than 600 mm2. In a case where the surface area of the medicine-holding body is greater than or equal to 10 mm2, the concentration of the anticoagulant becomes greater than or equal to a lower limit value of 10 U/mL even under most severe conditions such as a dispensing speed of 500 ?L/second. In a case where the surface area of the medicine-holding body is less than 600 mm2, it is possible to maintain the occurrence rate of hemolysis to be less than or equal to 10%.

Abstract: A circuit device according to an aspect of the present invention includes a circuit board which has one or more wiring layers formed on a base material and has an insulating layer laminated on a surface of the base material opposite to the one or more wiring layers, and a guiding member which is configured to encircle at least a part of an end face of the circuit board so that a space is formed with the end face and to guide movement of a dried body which is supplied to the formed space.

Abstract: A liquid ejection apparatus includes: a gas chamber surrounding a piezoelectric element in an inkjet head; and a dry gas supply device configured to start supply of dry gas to the gas chamber before supply of electric power to the inkjet head is started, to continue the supply of the dry gas while the supply of the electric power to the inkjet head is continued, and to halt the supply of the dry gas after the supply of the electric power to the inkjet head is halted. While the dry gas supply device halts the supply of the dry gas to the gas chamber, a dry gas supply flow channel opening and closing device is closed to disconnect the dry gas supply device and the gas chamber, and a gas return flow channel opening and closing device is closed to disconnect the gas chamber and the external air.

Abstract: A circuit device according to an aspect of the present invention includes a circuit board which has one or more wiring layers formed on a base material and has an insulating layer laminated on a surface of the base material opposite to the one or more wiring layers, and a guiding member which is configured to encircle at least a part of an end face of the circuit board so that a space is formed with the end face and to guide movement of a dried body which is supplied to the formed space.

Abstract: A flexible wiring circuit board has a second terminal section bonded and electrically connected to a first terminal section of a wiring circuit board of a discharge die. A drive signal is inputted to the first terminal section through the second terminal section, and then sent to a driver IC. The driver IC drives a piezoelectric element in accordance with the drive signal through a printed wiring pattern. Thereby, ink is discharged from an ink discharge opening. A copper ion diffusion inhibiting film is formed on a surface of a copper wiring member of the second terminal section on contact with a process liquid containing at least one of 1, 2, 3 triazole and 1, 2, 4 triazole. This inhibits diffusion of copper ions and copper ion migration resulting therefrom. Thus, malfunction due to the copper ion migration is inhibited.

Abstract: It is an object of the present invention to provide a method for simply mixing two or more types of liquids in a porous carrier.

Abstract: An object of the present invention is to provide a microchip whereby, when chemical analysis is conducted, a specimen liquid can be directly collected and weighed without using any collecting and weighing devices. The present invention provides a microchip for analyzing liquid samples, which has a measuring structure for weighing and collecting a given amount of a specimen liquid within a range of 0.05 to 10 ?l from an excessive amount of the specimen liquid which was introduced in the chip, wherein the measuring structure is located at the upstream side of an analysis element for analyzing a target substance in the specimen liquid inside the microchip.

Abstract: An intra-microchannel mixing method for mixing at least two substances in a microchannel is provided, the method including: at least one minute channel; and a first area and a second area which are contiguous with each other, the method comprising: accommodating the at least two substances in the at least one minute channel; and regulating the first area and the second area to different temperatures.

Abstract: A method for removing intra-microchannel bubbles, which removes bubbles occurring in a microchannel, is provided; the method including: allowing a liquid that contains bubbles and is introduced into a microchannel to flow in a first direction at a first flow speed at which the bubbles float upward and can remain adhered on an inner wall of the microchannel or less; and then allowing the liquid to flow in a second direction that is opposite to the first direction to move a gas-liquid interface of the liquid, which is a rear end of the liquid in the second direction, in the second direction at a second flow speed at which the bubbles adhered on the inner wall of the microchannel can maintain an adhesion position so as to collect the bubbles on the gas-liquid interface and make the bubbles disappear by exposing the bubbles to a gas.

Abstract: It is an object of the present invention to provide a method for simply mixing two or more types of liquids in a porous carrier.

Abstract: A clad pipe (70) is produced by heating PVDF to 180° C., and then this PVDF being extruded from a melt-extrusion device. The clad pipe (70) has a square cross-section whose sides L1 are 20 mm length, and in a center thereof, there is a square hole. In the square hole, a core (72) mainly includes PMMA is formed. Accordingly, a preform (12) having a clad (71) of PVDF and the core (72) of PMMA is obtained. The preform (12) is heat-soften-drawn at 210° C. A drawing ratio is 1600. Finally, an optical member (14) having a 0.5 mm square cross-section is obtained.

Abstract: A packaging object supplying apparatus for supplying a packaging object to a packaging unit for packaging the packaging object into a predetermined fashion and specifically, a packaging object supplying apparatus comprising a packaging object combining portion for forming a combination of the packaging objects by combining two or more kinds of the packaging objects by a predetermined quantity in a predetermined array and a packaging object introducing portion for introducing the packaging objects combined by the packaging object combining portion to the packaging unit, a boxing apparatus comprising foldable box body supplying means, opening forming means, box body holding means, packaging object loading means, and lid forming means, a box body supplying apparatus for supplying a box body to the boxing apparatus.

Abstract: A microfluidic chip, includes: a first port for inputting: a sample liquid; and a first liquid; a second port for inputting a second liquid; a third port for supplying air pressure; a first channel (A) for mixing the sample liquid and the first liquid to generate a first mixed liquid; a second channel (B) for beating the first mixed liquid; a third channel (C) for allowing the second liquid to converge into the first mixed liquid to generate a second mixed liquid; a fourth channel (D) installing a first solid; a fifth channel (E) for promoting mixing of the first solid; a plurality of sixth channels (F) each having a second solid; and a seventh channel (G), which connects the fifth channel (E) and the plurality of sixth channels (F), for dispensing a fixed quantity of the second mixed liquid to each of the plurality of sixth channels (F).