Abstract: An ultrasonic diagnostic device of an embodiment includes processing circuitry. The processing circuitry acquires an ultrasonic image of a subject, executes processing for each step for each of one or more examination procedures registered in advance and including one or more steps including processing of acquiring the ultrasonic image, in which set images are associated and registered, and determines a recommended step recommended to be executed subsequent to a current step or instead of the current step on the basis of a degree of consistency between a set image registered for each step and an ultrasonic image acquired in the current step that is being executed, and executes the recommended step subsequent to the current step or instead of the current step when the recommended step has been determined during execution of the current step.

Abstract: An in-vehicle heating device according to the present invention is provided on a lower part of a front side of a seat cushion (31) serving as a seating unit of a vehicle seat (30). The in-vehicle heating device includes: an air feeder (11) including a suction opening (11a) through which external air is sucked into the air feeder (11); a warm air generator (12) including a heater (22) therein, the warm air generator (12) being configured to heat air fed from the air feeder (11) to generate warm air; and a blow-out unit configured to blow out the warm air from the warm air generator (12), such that the warm air is blown out forward of the seat cushion (31). At least a part of the blow-out unit is positioned at a front of the seat cushion (31), and doubles as a front shield, which serves as a decorative member.

Abstract: An in-vehicle heating device according to the present invention is provided on a lower part of a front side of a seat cushion (31) serving as a seating unit of a vehicle seat (30). The in-vehicle heating device includes: an air feeder (11) including a suction opening (11a) through which external air is sucked into the air feeder (11); a warm air generator (12) including a heater (22) therein, the warm air generator (12) being configured to heat air fed from the air feeder (11) to generate warm air; and a blow-out unit configured to blow out the warm air from the warm air generator (12), such that the warm air is blown out forward of the seat cushion (31). At least a part of the blow-out unit is positioned at a front of the seat cushion (31), and doubles as a front shield, which serves as a decorative member.

Abstract: An in-vehicle heating device according to the present invention is provided on a lower part of a front side of a seat cushion (31) serving as a seating unit of a vehicle seat (30). The in-vehicle heating device includes: an air feeder (11) including a suction opening (11a) through which external air is sucked into the air feeder (11); a warm air generator (12) including a heater (22) therein, the warm air generator (12) being configured to heat air fed from the air feeder (11) to generate warm air; and a blow-out unit configured to blow out the warm air from the warm air generator (12), such that the warm air is blown out forward of the seat cushion (31). At least a part of the blow-out unit is positioned at a front of the seat cushion (31), and doubles as a front shield, which serves as a decorative member.

Abstract: A display apparatus, in which the entrapment of air bubbles on the inside of the sealing is suppressed, is provided. In a display apparatus including an element member (L) having an adhesion surface on which a display area (1a) is provided, and a sealing member (U) having an adhesion and which is adhered with a resin layer (m) between this adhesion surface and the adhesion surface of the element member (L), it is one in which the resin layer (m) is formed by combining a resin material (M), which is dispersed and applied in a plurality of places on an adhesion surface of at least one of the element member (L) and the sealing member (U), by pressing the element member (L) and the sealing member (U) against each other with the resin material (M) in between.

Abstract: A method of laminating first and second members to each other includes the steps of applying a resin material to a plurality of regions on the laminating surface of at least one of the first and second members such that an air escape passage extending in a predetermined direction is formed; providing a laminating force to the first and second members along the extending direction of the air escape passage in a state where the first and second members are disposed with their laminating surfaces opposed to each other, so that air is expelled toward the outside through the air escape passage and the applied resin material is made to be continuous so as to form a thin film layer; and then laminating the first and second members to each other.

Abstract: A display apparatus, in which the entrapment of air bubbles on the inside of the sealing is suppressed, is provided. In a display apparatus including an element member (L) having an adhesion surface on which a display area (1a) is provided, and a sealing member (U) having an adhesion and which is adhered with a resin layer (m) between this adhesion surface and the adhesion surface of the element member (L), it is one in which the resin layer (m) is formed by combining a resin material (M), which is dispersed and applied in a plurality of places on an adhesion surface of at least one of the element member (L) and the sealing member (U), by pressing the element member (L) and the sealing member (U) against each other with the resin material (M) in between.

Abstract: A laminating apparatus includes: applying means for applying a resin material onto laminating surfaces of a device substrate; and laminating means for laminating a sealing glass onto the device substrate to which the resin material has been applied. The applying means is capable of applying the resin material to a plurality of portions on the laminating surfaces such that an air escape passage is formed between the device substrate and the sealing glass. The laminating means is capable of expelling the air toward outside through the air escape passage when the laminating force is applied between the device substrate and the sealing glass along the air escape passage, and of laminating the sealing glass such that the applied resin material becomes continuous so as to form a thin film layer.

Abstract: An outdoor unit of a separate type air conditioner has suction ports and a blow-out port which can be disposed freely on the same side of the unit. Also, an outdoor unit of a one-side suction and exhaust type is excellent in static pressure characteristic, sufficient in air flow rate using only one blower, and is easy to install. Suction ports (8) are disposed at both sides in the front side of an outdoor unit main body (outer case 7), and a blow-out port (6a) is disposed in the center of the front side. A heat exchanger (3), an orifice (5), and one centripetal fan (1) are sequentially disposed behind the blow-out port (6a), thereby forming a draft circuit for sucking air from the suction ports (8) at the outer circumference of blades (1a) of the centripetal fan (1). The air is blown out ahead of the blades (1a) through the orifice (5) and heat exchanger (3). Therefore, since suction space is not required, the outdoor unit can be installed close to a wall.

Abstract: An integrated air conditioner is provided which realizes an improvement in the indoor- and outdoor-side ventilating circuits, an enhancement in air quantity performance, a reduction in noise, an enhancement in heat exchanging ability, compacting, and simplification in an installing operation. The integrated air conditioner has an indoor-side ventilating circuit (4) which is constituted by an indoor-side heat exchanger (5), two indoor-side air blowers (6) with centrifugal fans, an indoor-side suction port (2), and an indoor-side blowoff port (3); an outdoor-side ventilating circuit (9) which is constituted by an outdoor-side heat exchanger (10), an outdoor-side air blower (6) with an axial-flow fan, an outdoor-side suction port (7), and an outdoor-side blowoff port (8); ducts for leading the indoor-side suction port (2) and the indoor-side blowoff port (3) to an indoor side; and a compressor (12).

Abstract: An impeller for a cross-flow fan, including a plurality of impeller sections. Each impeller sections includes a pair of plate members and a number of blades extending between and circumferentially of the plate members such that the blades are circumferentially spaced at random pitch angles without periodicity.