Abstract: A rack mount-type information processing apparatus includes: a plurality of slots, into each of which an electronic device is inserted, a liquid-cooled element provided in a cooling target included in the electronic device, a liquid to cool the cooling target being circulated in the liquid-cooled element; a manifold pipe extending in a direction where the slots are arranged; and a plurality of connection pipes configured to interconnect the liquid-cooled element and the manifold pipe, and coupled in parallel to the manifold pipe at a portion of the manifold pipe which corresponds to at least one slot among the plurality of slots.

Abstract: A rack mount-type information processing apparatus includes: a plurality of slots, into each of which an electronic device is inserted, a liquid-cooled element provided in a cooling target included in the electronic device, a liquid to cool the cooling target being circulated in the liquid-cooled element; a manifold pipe extending in a direction where the slots are arranged; and a plurality of connection pipes configured to interconnect the liquid-cooled element and the manifold pipe, and coupled in parallel to the manifold pipe at a portion of the manifold pipe which corresponds to at least one slot among the plurality of slots.

Abstract: A cooling device includes: a refrigerant circulation loop configured to depressurizing the inside thereof, the refrigerant circulation loop includes, an evaporator that vaporizes a part of refrigerant by heat generated by an electronic component, a condenser that cools the refrigerant, and a pump that circulates the refrigerant, wherein a filling ratio of liquid refrigerant to a volume of the refrigerant circulation loop is configured to maintain a refrigerant circulation capability of the pump.

Abstract: A liquid loop cooling apparatus includes: an evaporator thermally coupled to a heating element; a condenser configured to be cooled by an airflow; a pump configured to circulate a refrigerant between the evaporator and the condenser; a first piping configured to couple the evaporator and the condenser; a second piping configured to couple the condenser and the pump; and a third piping configured to couple the pump and the evaporator, wherein the first piping is arranged on a destination side of the airflow, and the second piping is arranged on a source side of the airflow.

Abstract: A disclosed method of joining a cooling component includes joining an electronic component and a spherical shaped bottom plate of a cooling component to each other by pressing the bottom plate against the electronic component, while providing a thermal bonding material between the bottom plate and the electronic component.

Abstract: A liquid loop cooling apparatus includes: an evaporator thermally coupled to a heating element; a condenser configured to be cooled by an airflow; a pump configured to circulate a refrigerant between the evaporator and the condenser; a first piping configured to couple the evaporator and the condenser; a second piping configured to couple the condenser and the pump; and a third piping configured to couple the pump and the evaporator, wherein the first piping is arranged on a destination side of the airflow, and the second piping is arranged on a source side of the airflow.

Abstract: A disclosed method of joining a cooling component includes joining an electronic component and a spherical shaped bottom plate of a cooling component to each other by pressing the bottom plate against the electronic component, while providing a thermal bonding material between the bottom plate and the electronic component.

Abstract: A cooling module includes: a heat exchanger mounted on an electronic part mounted on a board, and that cools the electronic part; a leaf spring including an overhang portion and an extension portion, the overhang portion overhanging outward beyond the heat exchanger from the heat exchanger, and the extension portion extending from the overhang portion in a direction intersecting an overhang direction of the overhang portion when viewed in a thickness direction of the board; and a support member located around the heat exchanger, and fixed to the board, the extension portion bent toward the board being attached to the support member.

Abstract: A pump includes: an impeller including a rotary shaft and a plurality of blades extending radially from the rotary shaft, a cutout or a hole is formed in each of the blades; a casing housing the impeller therein; an inlet provided to the casing, a thermal medium flows in the casing through the inlet; and an outlet provided to the casing, the thermal medium flows out of the casing through the outlet.

Abstract: A wiring board structure includes: a first wiring board includes a first interconnection and a second interconnection constituting a power supply route; a second wiring board mounted over the first wiring board and includes a third interconnection electrically coupled to the first interconnection; a semiconductor chip mounted over the second wiring board and electrically coupled to the third interconnection; a lid mounted over the second wiring board and electrically coupled to the semiconductor chip; and a coupler electrically couples the lid and the second interconnection to each other.

Abstract: A cooling unit includes a radiator, a rigid supply pipe connected to the radiator, and a refrigerant that is air-cooled by the radiator flows, a plurality of open nozzles provided at the supply pipe to correspond to the respective plurality of heat-generating components, a plurality of heat receiving units that are mounted to the respective plurality of heat-generating components and connected to the respective open nozzles, and allow a refrigerant supplied from the open nozzles to flow through internal channels, and a plurality of return pipes each of which is provided for each of the heat receiving units and joined to the heat receiving unit, and returns the refrigerant discharged from the heat receiving unit to the radiator, wherein the respective heat receiving units are connected to the supply pipe to be relatively displaceable, and the respective return pipes are connected to one another in series and relatively displaceably.

Abstract: A cooling device includes: an evaporator that vaporizes a part of a refrigerant by heat generated by an electronic component; a condenser that cools the refrigerant; a refrigerant circulation loop coupled to the evaporator and the condenser, an inside of the refrigerant circulation loop is depressurized; and a pump that circulates the refrigerant, wherein a filling ratio of the liquid refrigerant to a volume of the refrigerant circulation loop is 50% or more.

Abstract: A cooling device includes a cooling member connected with a cooling pipe through which a cooling medium flows, a first fastening mechanism part provided at a first position on the cooling member and configured to fasten the cooling member and a substrate in a state where an electronic part to be cooled is sandwiched between the cooling member and the substrate, and a second fastening mechanism part provided at a second position on the cooling member that is different from the first position, the second position being located at a position where a first load exerted on the cooling member and a second load exerted on the cooling member maintain a balance in the electronic part, the first load being applied by the cooling pipe and the first fastening mechanism part, the second load being applied by the second fastening mechanism part.

Abstract: A dew condensation detecting device includes a dew condensation detector and a heat transfer part. The dew condensation detector is provided to a supply pipe, which supplies a cooling medium from a cooling medium supply apparatus to a device to be cooled. The dew condensation detector detects a dew condensation by detecting a water droplet due to the dew condensation. The heat transfer part transfers heat from the cooling medium flowing in a return pipe, which returns the cooling medium from the device to be cooled to the cooling medium supply apparatus, to the cooling medium flowing in the supply pipe between the dew condensation detector and the device to be cooled.

Abstract: A heat sink includes: a fixing unit fixed to a heating element; and a heat dissipation unit including a heat dissipation protruding portion and configured to slide with respect to the fixing unit.

Abstract: A cooling structure for a card-type electronic component, including: a printed circuit board on which a card-type electronic component is detachably mounted; a thermally-conductive heat transfer member, disposed facing the card-type electronic component; a press contact portion that places the heat transfer member in press contact with the card-type electronic component; and a pair of flow path portions that are disposed at both width direction sides of the card-type electronic component, that form flow paths in which coolant flows, and that support the heat transfer member so as to enable heat exchange between the heat transfer member and the coolant.

Abstract: DIMMs to be cooled are mounted in DIMM areas of a printed circuit board of a system board. An air intake port that introduces cooling air is arranged on a side plate of the system board, whereas an air discharge port that discharges the cooling air is arranged on another side plate. The cooling air flows in a direction that is oblique with respect to the side plate. The air intake port is arranged at a position that is offset in the direction in which the cooling air is supplied. Accordingly, cooling is possible by efficiently bringing the cooling air into contact with the DIMMs.

Abstract: A cooling unit includes a radiator, a rigid supply pipe connected to the radiator, and a refrigerant that is air-cooled by the radiator flows, a plurality of open nozzles provided at the supply pipe to correspond to the respective plurality of heat-generating components, a plurality of heat receiving units that are mounted to the respective plurality of heat-generating components and connected to the respective open nozzles, and allow a refrigerant supplied from the open nozzles to flow through internal channels, and a plurality of return pipes each of which is provided for each of the heat receiving units and joined to the heat receiving unit, and returns the refrigerant discharged from the heat receiving unit to the radiator, wherein the respective heat receiving units are connected to the supply pipe to be relatively displaceable, and the respective return pipes are connected to one another in series and relatively displaceably.

Abstract: A dew-condensation detecting apparatus includes a dew-condensation detector provided in a middle of a cold-liquid supply passage. The cold-liquid supply passage supplies a cooling liquid to electronic equipment. The dew-condensation detector detects dew condensation by detecting water droplets due to the dew condensation. A heating part heats the cooling liquid which has exited from the dew-condensation detector.