Mitsubishi Electric Corporation

Shigetoshi Ipposhi

Masaru Shinozaki

Hiroyuki Higashino

Yugo Asai

Masakazu Tani

Kazuki Sakata

Yoshikazu Yaji

Shunkei Suzuki

Yasumitsu Nomura

Kenichi Hayashi

Tetsuya Takahashi

Yukio Sato

Osamu Morimoto

Yasuhiro Suzuki

Yoshihiro Miyama

Akihiro Daikoku

Shinsaku Kusube

Hideaki Arita

Yasushi Nakayama

Shinji Murata

Mitoru Yabe

Hiroyuki Ushifusa

Toshio Nakayama

Yukio Nakashima

Hideharu Nobutoki

Hirokazu Takabayashi

Norihiro Watanabe

Shigenori Shibue

Junichi Aizawa

Toshiki Tanaka

Yusuke Kimoto

Haruyuki Matsuo

Akihiro Murahashi

Norihiro Yoneda

Shota Hanioka

Shinya Tokizaki

Kentaro Yonehara

Toshio Shinoki

Ryosuke Nakagawa

Ryuji Momose

Keiji Harada

Masaki Muramatsu

Kazuyoshi Toya

Junichi Nakazono

Keisuke Iwasawa

Naoki Kanno

Yoshitaka Eijima

Takuya Kodama

Hiroyuki Yano

Shinya Motokawa

Masafumi Ibushi

Seiji Maruyama

Yuichi Usuda

Naoki Suetomi

Hayato Kurino

This electric vehicle driving device includes: a motor; a gear box storing a speed reduction mechanism, and a differential mechanism; a final gear shaft of which one side is connected to the differential mechanism; a support structure supporting another side of the final gear shaft; and a radiator. The motor and the final gear shaft are arranged so as to be opposed to each other with an interval provided therebetween. The gear box is provided on one side in an X direction of the motor and the final gear shaft, and the support structure is provided on another side in the X direction of the motor and the final gear shaft. The radiator is provided on any one or two direction sides of another side in a Y direction, one side in a Z direction, and another side in the Z direction with respect to the final gear shaft.

Electric vehicle driving device

A cooling structure includes: a heat sink to be mounted to a heat generator; and a duct, which is mounted to the heat sink, and is configured to guide an air flow flowing around the heat sink to the heat sink, wherein the heat sink has an air flow passage configured to allow the air flow to pass through the air flow passage, wherein one end side of the duct is to be mounted to an upstream side of the air flow passage, and wherein another end side of the duct is to be extended from an upstream end portion of the air flow passage to an upstream side of the air flow.

Cooling structure and outdoor unit including cooling structure

A heat storage unit includes: a heat storage material that contains water and high polymers that exhibit hydrophilicity or hydrophobicity depending on a temperature; a heat exchanger that causes heat exchange to be performed between a heating fluid and the heat storage material to heat the heat storage material and store heat in the heat storage material, and causes heat exchange to be performed between a heat utilization fluid and the heat storage material to receive heat from the heat storage material and cause heat to be transferred from the heat storage material; and a container that is filled with the heat storage material and houses the heat exchanger.

Heat storage unit, heat storage system, and heat storage method

A vehicle power conversion device includes: a housing configured to accommodate an electronic component therein and having an opening; and a cooling device. The cooling device includes a base being a plate-shaped member and heat sinks attached to the base. The base has a groove with refrigerant enclosed. The base has a first main surface to which the electronic component is to be attached, and covers the opening by the first main surface facing an interior of the housing. The heat sinks are joined, at intervals, onto the second main surface of the base.

Vehicle power conversion device

An outdoor unit comprises a casing, a fan, a heat exchanger, an electrical component, a heat radiation member, and a duct. The casing is provided with an air outlet. The fan is disposed inside the casing and configured to blow air to the outside of the casing via the air outlet. The heat exchanger is disposed inside the casing at a position lower than the fan. The electrical component is disposed inside the casing at a position lower than the heat exchanger. The heat radiation member is connected to the electrical component inside the casing. The duct is configured to accommodate at least part of the heat radiation member inside the casing and extend in the vertical direction. An upper end of the duct is configured to protrude upward higher than a lower end of the heat exchanger.

Outdoor unit and air conditioner

A heat pump apparatus includes a use-side heat exchanger that causes heat exchange to be performed between a heat medium flowing from a heat-storage heat exchanger and a heat usage medium, and a flow-passage switching device that switches a flow passage for the heat medium to a first flow passage that circulates through a heat-reception-side heat exchanger and the heat-storage heat exchanger without extends through the use-side heat exchanger or a second flow passage that circulates through the heat-reception-side heat exchanger and the heat-storage heat exchanger via the use-side heat exchanger. Even when the temperature of the heat storage medium rises, heat received from a heat source can be stored in the heat storage medium by a heat pump, while a decrease of the efficiency of the heat pump can be reduced.

Heat pump apparatus

A boiling cooling device and a boiling cooling system which can promote boiling and restrain the cooling capacity of the device from deteriorating. A boiling cooling device includes: a pump to circulate refrigerant; a microbubble generator to produce microbubbles and incorporate the microbubbles into the refrigerant discharged from the pump; a boiling cooler to which the refrigerant containing the microbubbles is supplied and which boils the refrigerant; a radiator to cool the refrigerant after the refrigerant is boiled and before the refrigerant is taken in by the pump; and a gas-liquid separatorto separate gas from the circulating refrigerant after the refrigerant is boiled and before the refrigerant is taken in by the pump.

Boiling cooling device and boiling cooling system

A cooler configured to cool an electronic device includes: a refrigerant inlet portion configured to guide refrigerant from an outside of a casing to an inside of the casing; a refrigerant outlet portion configured to guide the refrigerant from the inside of the casing to the outside of the casing; and a metal member located inside the casing and configured to define a flow path region in which the refrigerant is caused to flow from the refrigerant inlet portion to the refrigerant outlet portion. The metal member includes: a plurality of opening portions configured to cause the refrigerant to pass therethrough; and a capture and reduction portion having such a shape as to capture air bubbles, which are generated through a connection surface between the casing and the electronic device. The air bubbles are reduced through cooling by the refrigerant when the electronic device is cooled.

Cooler, power conversion apparatus, and cooling system

A heat utilizing apparatus includes a heat pump including a first heat exchanger and a second heat exchanger, a first heat storage unit storing heat exchanged in the first heat exchanger, a second heat storage unit storing heat exchanged in the second heat exchanger, a third heat exchanger exchanging heat with the first heat storage unit, a fourth heat exchanger exchanging heat with the second heat storage unit, a measurement unit measuring a heat storage amount of the first heat storage unit, a heat rejection unit reducing the heat storage amount of the first heat storage unit, a determination unit determining, in accordance with a measurement result of the measurement unit, whether to reduce the heat storage amount of the first heat storage unit and a heat storage amount of the second heat storage unit, and a control unit adjusting the amount of heat to be reduced through the heat rejection unit in accordance with a determination result of the determination unit.

Heat utilizing apparatus

The power conversion device of the invention includes: a cooling unit that is a prism, the interior of which is hollow, and that has a refrigerant inlet portion and a refrigerant outlet portion the cooling unit having in the interior thereof a refrigerant channel through which a refrigerant flows from the refrigerant inlet portion towards the refrigerant outlet portion; electronic devices that are respectively disposed on three or more surfaces on the outside of side surfaces of the cooling unit, excluding a refrigerant inlet surface, in which the refrigerant inlet portion is disposed, and a refrigerant outlet surface, in which the refrigerant outlet portion is disposed, the electronic devices being cooled by boiling of the refrigerant; and a hollow outer casethat covers the electronic devices.

Power conversion device

In a mechanically and electrically integrated driving apparatus, a common coolant flow channel for cooling a motor unit and an inverter unit is disposed inside a wall portion of a frame unit. Power modules are placed in close contact with an inner wall surface of the frame unit. A bracket that is separate from the frame unit is fitted into the frame unit. A space inside the frame unit is divided by the bracket into: a space in which the motor unit is housed; and a space in which the inverter unit is housed.

Mechanically and electrically integrated driving apparatus and manufacturing method therefor

Provided is a cooling device, a power conversion device, and a cooling system in which bubbles produced by boiling in the cooling device are inhibited from flowing out of the cooling device, and thus, vibration, noise, and damage to pipes and other components can be prevented. A cooling device according to the present invention includes a housing having a hollow interior, the housing having a refrigerant inlet from which refrigerant flows in and a refrigerant outlet from which the refrigerant flows out, and having, in the hollow interior, a refrigerant flow path through which the refrigerant flows, and an opening body provided in the housing, dividing the refrigerant flow path into a first area including a heating surface being at least one of a bottom surface and side surfaces of the housing and heating the refrigerant, and a second area including the refrigerant outlet, and having a plurality of openings.

Cooling device, power conversion device, and cooling system

A heat sink including a base section, connection fins, and parallel fins. The base section includes: a first base plate configured to be mounted with a heat generating component on its outer surface; a second base plate disposed to face the first base plate in a parallel manner, configured to be mounted with a heat generating component on its outer surface; and a third base plate disposed perpendicular to the first base plate and the second base plate, which secures the first base plate and the second base plate along a junction line. The base section includes first and second regions arranged in the direction of the junction line. The connection fins are disposed on the first region to connect inner surfaces of the first and second base plates and to be parallel to the third base plate, and the parallel fins are disposed on the second region from an inner surface of the third base plate to be parallel to the first base plate.

Heat sink, and method for producing same

A cooling device includes a base plate to a rear surface side of which an under-floor device is attached. A heat radiating unit is attached to a front surface side of the base plate and radiating heat is conducted from the under-floor device via the base plate. A cover surrounding the heat radiating unit and including a side opening is capable of causing traveling wind to flow therein and thereout, in opposite side surfaces facing a traveling direction of a vehicle. A guide plate guides traveling wind flowing in from the side opening to the heat radiating unit by blocking at least part of a gap area between a surface connecting the opposite side surfaces and the heat radiating unit, the guide plate being provided in a side gap area between a side surface of the cover and the heat radiating unit on a traveling-wind flow-in side.

Cooling device for under-floor device for vehicle

A light source device includes an outer housing, a partitioning member for forming a multi-stage structure in the outer housing, thereby partitioning each stage, a plurality of light source units disposed in respective stages of the outer housing, each of which has light source members and a heat pump unit for cooling the light source members, an opening portion for taking air acting as cooling air to be supplied to a cooling body from an outer part of the outer housing into an inner part thereof, and an opening portion formed along arrangement of the light source units in the partitioning member.

Light source device

Growing community of inventors

Tokyo, Japan

Shigetoshi Ipposhi