Abstract: A gas turbine fuel supply system includes a fuel supply flow passage that includes a fuel gas heater which heats fuel and supplies the fuel heated by the fuel gas heater to a first nozzle and a second nozzle, a bypass flow passage that supplies the fuel to the first nozzle without passing through the fuel supply flow passage, and a bypass fuel flow rate adjusting valve that adjusts a flow rate of the fuel flowing in the bypass flow passage.

Abstract: A gas turbine fuel supply system includes a fuel supply flow passage that includes a fuel gas heater which heats fuel and supplies the fuel heated by the fuel gas heater to a first nozzle and a second nozzle, a bypass flow passage that supplies the fuel to the first nozzle without passing through the fuel supply flow passage, and a bypass fuel flow rate adjusting valve that adjusts a flow rate of the fuel flowing in the bypass flow passage.

Abstract: A control device selects and executes any of normal control of outputting a fuel flow rate command value through feedback control based on a deviation between a target output and an actual output of a gas turbine and load decreasing control of outputting the fuel flow rate command value for reducing an output of the gas turbine to a predetermined target output during a predetermined first time without performing feedback control, and performs control of reducing a flow rate of air flowing into a compressor of the gas turbine such that an air-fuel ratio settles within a predetermined range, in parallel with execution of the load decreasing control when the load decreasing control is selected.

Abstract: A light-emitting-and-receiving element module 1 comprises a substrate 2 that comprises a top surface 2a; a light-emitting element 3a on the top surface 2a of the substrate 2; a light-receiving element 3b on the top surface 2a of the substrate 2 and apart from the light-emitting element 3a; and an intermediate wall 5 between the light-emitting element 3a and the light-receiving element 3b, the intermediate wall 5 comprising a lower surface 5c disposed apart from the top surface 2a. The lower surface 5c of the intermediate wall 5 has a protruding shape.

Abstract: A light-emitting-and-receiving element module 1 comprises a substrate 2 that comprises a top surface 2a; a light-emitting element 3a on the top surface 2a of the substrate 2; a light-receiving element 3b on the top surface 2a of the substrate 2 and apart from the light-emitting element 3a; and an intermediate wall 5 between the light-emitting element 3a and the light-receiving element 3b, the intermediate wall 5 comprising a lower surface 5c disposed apart from the top surface 2a. The lower surface 5c of the intermediate wall 5 has a protruding shape.

Abstract: A light irradiation apparatus which has excellent maintainability despite an increase in its length and size is provided. A light irradiation apparatus includes a plurality of light irradiation modules arranged; and a casing which houses at least part of the plurality of light irradiation modules. The plurality of light irradiation modules each includes a light irradiation device, a heat-dissipating member, a cooling piping for supply, a cooling piping for discharge which discharges a coolant from the flow channel, an electrical wiring, and a cover. The casing includes a side-cover and an under-cover.

Abstract: According to one aspect of an embodiment, an information display device includes an arranging unit that arranges, in a column, first content and second content that is different from the first content such that an upper end of the first content is brought into contact with the lower end of the second content. The information display device includes a displaying unit that displays the first content and the second content at the position away from the upper end of the second content by a predetermined distance in the downward direction as the position of the upper end of a display area.

Abstract: A light irradiation apparatus includes a housing configured to house a light irradiation device including a plurality of light-emitting elements arranged, a drive substrate having a circuit to which a constant current generation device is electrically connected, a heat dissipation member having a plate-shape, and a cooling pipe. The light irradiation device is disposed on one main surface of the heat dissipation member, and the constant current generation device is disposed on the other main surface of the heat dissipation member or on the drive substrate, the drive substrate being disposed on the other main surface of the heat dissipation member.

Abstract: A gas turbine is provided with a combustor having a pilot nozzle, a first main nozzle, and a second main nozzle. A combustor control device has a load interruption detector which detects load interruption of the gas turbine, a pilot nozzle flow rate control unit which increases the amount of premixed fuel supplied to the pilot nozzle, based on the detection of the load interruption, a first main nozzle flow rate control unit which reduces the amount of premixed fuel supplied to the first main nozzles, based on the detection of the load interruption, and a second main nozzle flow rate control unit which reduces the amount of premixed fuel supplied to the second main nozzles to a predetermined amount, based on the detection of the load interruption, and then further reduces the amount of premixed fuel supplied after the elapse of a predetermined time.

Abstract: A light irradiation apparatus which has excellent maintainability despite an increase in its length and size is provided. A light irradiation apparatus includes a plurality of light irradiation modules arranged; and a casing which houses at least part of the plurality of light irradiation modules. The plurality of light irradiation modules each includes a light irradiation device, a heat-dissipating member, a cooling piping for supply, a cooling piping for discharge which discharges a coolant from the flow channel, an electrical wiring, and a cover. The casing includes a side-cover and an under-cover.

Abstract: A light irradiation apparatus of the embodiment is a light irradiation apparatus that emits light including an ultraviolet ray to a target relatively moving in one direction, including a light irradiation device in which a light emitting element is disposed on one main surface of a base; and a light irradiation chamber in whose internal space the target moves with a light-irradiated surface up from an entrance to an exit thereof in the one direction, the light irradiation device being disposed in an upper section of the internal space.

Abstract: A light irradiation apparatus includes a housing configured to house a light irradiation device including a plurality of light-emitting elements arranged, a drive substrate having a circuit to which a constant current generation device is electrically connected, a heat dissipation member having a plate-shape, and a cooling pipe. The light irradiation device is disposed on one main surface of the heat dissipation member, and the constant current generation device is disposed on the other main surface of the heat dissipation member or on the drive substrate, the drive substrate being disposed on the other main surface of the heat dissipation member.

Abstract: A light irradiation apparatus of the embodiment is a light irradiation apparatus that emits light including an ultraviolet ray to a target relatively moving in one direction, including a light irradiation device in which a light emitting element is disposed on one main surface of a base; and a light irradiation chamber in whose internal space the target moves with a light-irradiated surface up from an entrance to an exit thereof in the one direction, the light irradiation device being disposed in an upper section of the internal space.

Abstract: A recorder set includes: a recorder which has a connection terminal electrically connected to external equipment, and a casing; and a holder which maintains an attitude of the recorder. The casing has an accommodation unit which accommodates the connection terminal therein, and an opening which allows the connection terminal to externally project therethrough. The holder includes an attachment unit which allows the recorder to be attached thereto in a predetermined attitude. The attachment unit includes a fit member which has an inner wall fitting the connection terminal in geometry. The fit member has an outer wall fittable in the opening.

Abstract: A first microphone device according to the present invention comprises a pair of directional microphones with high directivity in a sound collecting direction, a pair of nondirectional microphones with low directivity in the sound collecting direction, and a casing accommodating the pair of directional microphones and the pair of nondirectional microphones. The pair of nondirectional microphones is arranged so that sound collecting directions thereof are outward from both side surface walls of the casing, while the pair of directional microphones is arranged so that sound collecting directions thereof are outward from a front surface wall of the casing and intersect each other in vicinity of the front surface wall. All or a part of the pair of directional microphones is accommodated in a space sandwiched by the pair of nondirectional microphones.

Abstract: An optical printer head comprises a base, a light-emitting device array mounted on the base, a lens array placed above the light-emitting device array; and a support member including a base bonding surface to which the base is bonded and a through hole, an opening of the through hole being positioned at the base bonding surface, wherein the base is bonded to the base bonding surface through an adhesive member and a part of the adhesive member is attached to an inner surface of the through hole.

Abstract: A recorder set includes: a recorder which has a connection terminal electrically connected to external equipment, and a casing; and a holder which maintains an attitude of the recorder. The casing has an accommodation unit which accommodates the connection terminal therein, and an opening which allows the connection terminal to externally project therethrough. The holder includes an attachment unit which allows the recorder to be attached thereto in a predetermined attitude. The attachment unit includes a fit member which has an inner wall fitting the connection terminal in geometry. The fit member has an outer wall fittable in the opening.

Abstract: An optical printer head comprises a base, a light-emitting device array mounted on the base, a lens array placed above the light-emitting device array; and a support member including a base bonding surface to which the base is bonded and a through hole, an opening of the through hole being positioned at the base bonding surface, wherein the base is bonded to the base bonding surface through an adhesive member and a part of the adhesive member is attached to an inner surface of the through hole.

Abstract: A first microphone device according to the present invention comprises a pair of directional microphones with high directivity in a sound collecting direction, a pair of nondirectional microphones with low directivity in the sound collecting direction, and a casing accommodating the pair of directional microphones and the pair of nondirectional microphones. The pair of nondirectional microphones is arranged so that sound collecting directions thereof are outward from both side surface walls of the casing, while the pair of directional microphones is arranged so that sound collecting directions thereof are outward from a front surface wall of the casing and intersect each other in vicinity of the front surface wall. All or a part of the pair of directional microphones is accommodated in a space sandwiched by the pair of nondirectional microphones.

Abstract: An immunoassay comprises the steps of: (a) mixing a whole blood sample with sensitized insoluble carrier particles smaller than erythrocytes to cause an immune agglutination reaction; (b) introducing the resulting immune agglutination reaction mixture including agglutinated particles and unagglutinated particles to a flow cell, irradiating the particles passing through the flow cell with laser light, and detecting scattered lights generated thereby; (c) setting a threshold value for distinguishing unagglutinated particles from agglutinated particles and a threshold value for distinguishing the agglutinated particles from blood cells with regard to intensity of the scattered light; and (d) distinguishing and counting the unagglutinated particles, the agglutinated particles and the blood cells from the scattered lights detected in the step (b), in reference to the threshold values set in the step (c).