Abstract: An image capturing apparatus capable of capturing essential parts in high resolution comprises an image capturing unit configured to include an optical system that forms a low-resolution region on the central side of a light-receiving surface and a high-resolution region on the peripheral side of the light-receiving surface, wherein the image capturing unit is arranged on a vehicle so that an image of a lower side and forward-rearward direction of the vehicle is formed in the high-resolution region of the light-receiving surface of the image capturing unit by the optical system.

Abstract: A cooling device includes a container in which refrigerant is sealed. The container includes; a heat reception plate that forms part of the container and that receives heat from a heat generating element; an evaporator that causes the refrigerant in a liquid phase to evaporate with heat reception in the container; a condenser that causes the refrigerant in a gas phase to condense with heat dissipation in the container; and a plurality of recessed portions formed in a surface of the heat reception plate inside the container.

Abstract: A liquid cooling module includes a heat-receiver, an inlet-passage in which a flow-path through which the liquid-refrigerant flowed from an inlet flows is formed, a first flow-passage in which the flow-path continues from the inlet-passage, and that is formed as spreading in a fan-like shape as viewed in a normal-direction of a heat-receiving-surface, a second flow-passage in which the flow-path continues from the first flow-passage, and that is formed toward the heat-receiver in the normal-direction, a diffuser in which grooves that continue from the second flow-passage in the heat-receiver and diffuses the liquid-refrigerant along a surface on an opposite side of the heat-receiving-surface is formed, a third flow-passage in which the flow-path continues from the grooves, and that is formed in the normal-direction and a direction in which the flow-path is separating from the heat-receiver, and an outlet-passage in which the flow-path continues from the third flow-passage to an outlet.

Abstract: A heat sink comprises a bottom plate and a plurality of fins. The bottom plate is formed in a T-shape of a head portion and a body portion and includes a coupling region in which the body portion is thermally coupled to a heat generation element; and the plurality of fins that are erected at the head portion and the body portion of the bottom plate and extend in a direction from the head portion toward the body portion. With the plurality of fins, a pressure loss of first air which flows through a center portion of the head portion is smaller than a pressure loss of second air which flows through a side portion of the head portion in a case where air flows between the plurality of fins along the direction.

Abstract: A liquid cooling jacket with first and second heat receivers and a biasing spring. The first heat receiver having a first refrigerant pipe through which a refrigerant flow and a first heat conductive sheet that receives heat by being in contact with a cooling target. The second heat receiver is configured to approach and separate from the first heat receiver while facing the first heat conductive sheet. The spring biases the first heat receiver and the second heat receiver in an approaching direction.

Abstract: An information processing device includes a board, a receiver that includes a top wall facing the board, the receiver to allow a coupling device to be inserted into a space between the board and the top wall, a movable part provided in the top wall, the movable part to be movable in a direction facing the board, the movable part having a contact portion to be in contact with a top surface of the coupling device, an elastic part that has elasticity provided at the movable part, the elastic part urging the movable part toward the board, a heat sink thermally coupled to the movable part through the elastic part, a housing positioned over a side opposite the board relative to the heat sink, the housing having a facing wall facing the heat sink, and a fan to supply wind to the heat sink along the facing wall.

Abstract: An electronic component cooling module includes a tube disposed in parallel with an electronic component mounted on a board, in which a coolant liquid that cools the electronic component flows, and configured to include an expansion portion that expands, due to a pressure of the coolant liquid, toward the electronic component disposed beside the tube so as to be brought into surface contact with the electronic component, and a height maintaining portion that maintains a dimension in a height direction, and a supporter configured to support the tube, and a height of the tube and a height of the supporter are equal to or smaller than a height of the electronic component in a state in which the electronic component is mounted on the board.

Abstract: A liquid cooling jacket includes a first heat receiver configured to include a first refrigerant pipe through which a refrigerant flows and a first heat conductive sheet that receives heat by being in contact with a cooling target, a second heat receiver capable of approaching and separating from the first heat receiver and configured to face the first heat conductive sheet, and a spring configured to bias the first heat receiver and the second heat receiver in an approaching direction.

Abstract: An electronic component cooling module includes a tube disposed in parallel with an electronic component mounted on a board, in which a coolant liquid that cools the electronic component flows, and configured to include an expansion portion that expands, due to a pressure of the coolant liquid, toward the electronic component disposed beside the tube so as to be brought into surface contact with the electronic component, and a height maintaining portion that maintains a dimension in a height direction, and a supporter configured to support the tube, and a height of the tube and a height of the supporter are equal to or smaller than a height of the electronic component in a state in which the electronic component is mounted on the board.

Abstract: An information processing device includes a board, a receiver that includes a top wall facing the board, the receiver to allow a coupling device to be inserted into a space between the board and the top wall, a movable part provided in the top wall, the movable part to be movable in a direction facing the board, the movable part having a contact portion to be in contact with a top surface of the coupling device, an elastic part that has elasticity provided at the movable part, the elastic part urging the movable part toward the board, a heat sink thermally coupled to the movable part through the elastic part, a housing positioned over a side opposite the board relative to the heat sink, the housing having a facing wall facing the heat sink, and a fan to supply wind to the heat sink along the facing wall.

Abstract: A substrate includes a circuit board, a heat generator mounted over a mounting surface of the circuit board, a heat sink in contact with the heat generator, a retainer attached to the mounting surface so as to retain the heat generator and reinforce the circuit board, and a fastener configured to fix the heat sink to the retainer so as to bring the heat sink into contact with the heat generator.

Abstract: A substrate includes a circuit board, a heat generator mounted over a mounting surface of the circuit board, a heat sink in contact with the heat generator, a retainer attached to the mounting surface so as to retain the heat generator and reinforce the circuit board, and a fastener configured to fix the heat sink to the retainer so as to bring the heat sink into contact with the heat generator.

Abstract: A power supply board includes: a first board including a top surface on which a processor is capable of being mounted, a bottom surface located on an opposite side of the top surface, and a plurality of first through holes and a plurality of second through holes capable of being electrically connected with the processor by penetrating through the first board from the top surface to the bottom surface; a second board arranged at a position distant from the bottom surface of the first board and provided with a power supply device; a first conductor mounted on the bottom surface of the first board and electrically connects the plurality of first through holes and the power supply device, and a second conductor mounted on the bottom surface of the first board and electrically connects the plurality of second through holes and the power supply device.

Abstract: A power supply board includes: a first board including a top surface on which a processor is capable of being mounted, a bottom surface located on an opposite side of the top surface, and a plurality of first through holes and a plurality of second through holes capable of being electrically connected with the processor by penetrating through the first board from the top surface to the bottom surface; a second board arranged at a position distant from the bottom surface of the first board and provided with a power supply device; a first conductor mounted on the bottom surface of the first board and electrically connects the plurality of first through holes and the power supply device, and a second conductor mounted on the bottom surface of the first board and electrically connects the plurality of second through holes and the power supply device.

Abstract: A fuel tank for a saddle-ride type vehicle includes a lower half body and an upper half body. The lower half body has a left lower flange part and a right lower flange part, the upper half body has a left upper flange part and a right upper flange part, and the fuel tank is constituted by welding the left lower flange part and the left upper flange part and welding the right lower flange part and the right upper flange part. Left and right fold parts and as folded downward are provided on the left and right upper flange parts.

Abstract: A fuel tank for a saddle-ride type vehicle includes a lower half body and an upper half body. The lower half body has a left lower flange part and a right lower flange part, the upper half body has a left upper flange part and a right upper flange part, and the fuel tank is constituted by welding the left lower flange part and the left upper flange part and welding the right lower flange part and the right upper flange part. Left and right fold parts and as folded downward are provided on the left and right upper flange parts.

Abstract: A pressure detection unit includes a front-wheel transmitter and a rear-wheel transmitter operatively connected to wheel rims of a front wheel and a rear wheel, respectively. Inflation pressure signals transmitted from the front-wheel transmitter and the rear-wheel transmitter are received by a receiver. The receiver is arranged to be offset outward of a straight line connecting the front-wheel transmitter and the rear-wheel transmitter in the vehicle-body width direction. More specifically, the receiver is arranged in a space surrounded by a front cowl and a side panel, the space being between a coolant reserve tank and a radiator. The single receiver receives the signals transmitted from the front-wheel transmitter and the rear-wheel transmitter.

Abstract: A pressure detection unit includes a front-wheel transmitter and a rear-wheel transmitter operatively connected to wheel rims of a front wheel and a rear wheel, respectively. Inflation pressure signals transmitted from the front-wheel transmitter and the rear-wheel transmitter are received by a receiver. The receiver is arranged to be offset outward of a straight line connecting the front-wheel transmitter and the rear-wheel transmitter in the vehicle-body width direction. More specifically, the receiver is arranged in a space surrounded by a front cowl and a side panel, the space being between a coolant reserve tank and a radiator. The single receiver receives the signals transmitted from the front-wheel transmitter and the rear-wheel transmitter.

Abstract: A hydrogenation catalyst for hydrocarbon oils containing aromatic hydrocarbons is provided. The catalyst has a silica-magnesia oxide carrier with a magnesia content within a range from 25 to 50 weight percent calculated in terms of the metal oxide, to which a noble metal selected from among the group VIII metals of the periodic table is added as the active component. In addition, the pore characteristics of the catalyst are such that the volume of pores with a pore size of at least 4 nm as measured by a mercury porosimetry method is within the range from 0.3 to 0.6 ml/g, the volume of pores with a pore size of at least 200 nm as measured by a mercury porosimetry method is no more than 0.05 ml/g, the volume of pores with a pore size from 0.7 to 2 nm as measured by nitrogen adsorption-t-plot method is within the range from 0.2 to 0.3 ml/g, and the volume of pores with a pore size from 2 to 4 nm as measured by nitrogen adsorption-DH method is within the range from 0.15 to 0.2 ml/g.