Abstract: A connector includes: an outer circumferential wall forming a recessed portion inside thereof, a counterpart connector being to be fitted into the recessed portion; a cylindrical portion provided inside the outer circumferential wall, having an inner circumferential surface, and configured to receive a counterpart terminal of the counterpart connector inside the inner circumferential surface; a terminal having a contact portion arranged inside the inner circumferential surface, the terminal being to be electrically connected to the counterpart terminal when the contact portion contacts the counterpart terminal; and a cooling mechanism having a heat absorption portion and a heat dissipation portion, the heat absorption portion being provided at a position opposite to the contact portion with respect to the inner circumferential surface.

Abstract: A terminal structure for use in power feeding includes a first terminal that includes a base portion and a tip portion, that has a shape extending from the base portion to the tip portion along an axis of the first terminal, and that is insertable into and removable from a second terminal, which is tubular. At a predetermined temperature, the first terminal has a first form in which an outer dimension of the tip portion is smaller than that of the base portion when viewed in a direction of a central axis of the first terminal. When a temperature of the first terminal exceeds the predetermined temperature, the first terminal deforms into a second form in which an outer dimension of the tip portion is larger than that of the tip portion of the first form when viewed in a direction of the central axis of the first terminal.

Abstract: A connector includes: a terminal including a base portion and a cylindrical portion, an outer circumferential surface thereof contacting a counterpart terminal; and a heat transfer member which contacts an inner circumferential surface of the cylindrical portion, absorbs a portion of heat generated at the cylindrical portion, and transports the absorbed heat to a base portion side. The heat transfer member is configured to satisfy Q1>Q2, where Q1 is defined as a heat transfer amount transported to the base portion side during conduction, using the heat transfer member, and Q2 is defined as a heat transfer amount transported to the base portion side during the conduction, using another heat transfer member constituted of a member having a heat conductivity identical to that of the cylindrical portion, when the other one is arranged to fill a space formed on an inner circumferential surface side of the cylindrical portion.

Abstract: Provided is a terminal structure in which a first terminal is insertable in a second terminal. The first terminal includes a pin and a first rotor provided at an end of the pin. The second terminal includes a female pin, a hollow elastic member rotatable along the inner circumferential face of the receptacle in the female pin, and a second rotor provided at an end of the elastic member. The second rotor and the elastic member are configured to rotate circumferentially when the first rotor is moved in the insertion direction.

Abstract: A terminal structure for use in power feeding includes a first terminal that includes a base portion and a tip portion, that has a shape extending from the base portion to the tip portion along an axis of the first terminal, and that is insertable into and removable from a second terminal, which is tubular. At a predetermined temperature, the first terminal has a first form in which an outer dimension of the tip portion is smaller than that of the base portion when viewed in a direction of a central axis of the first terminal. When a temperature of the first terminal exceeds the predetermined temperature, the first terminal deforms into a second form in which an outer dimension of the tip portion is larger than that of the tip portion of the first form when viewed in a direction of the central axis of the first terminal.

Abstract: Provided is a terminal structure in which a first terminal is insertable in a second terminal. The first terminal includes a pin and a first rotor provided at an end of the pin. The second terminal includes a female pin, a hollow elastic member rotatable along the inner circumferential face of the receptacle in the female pin, and a second rotor provided at an end of the elastic member. The second rotor and the elastic member are configured to rotate circumferentially when the first rotor is moved in the insertion direction.

Abstract: A connector includes: a terminal including a base portion and a cylindrical portion, an outer circumferential surface thereof contacting a counterpart terminal; and a heat transfer member which contacts an inner circumferential surface of the cylindrical portion, absorbs a portion of heat generated at the cylindrical portion, and transports the absorbed heat to a base portion side. The heat transfer member is configured to satisfy Q1>Q2, where Q1 is defined as a heat transfer amount transported to the base portion side during conduction, using the heat transfer member, and Q2 is defined as a heat transfer amount transported to the base portion side during the conduction, using another heat transfer member constituted of a member having a heat conductivity identical to that of the cylindrical portion, when the other one is arranged to fill a space formed on an inner circumferential surface side of the cylindrical portion.

Abstract: A connector includes: an outer circumferential wall forming a recessed portion inside thereof, a counterpart connector being to be fitted into the recessed portion; a cylindrical portion provided inside the outer circumferential wall, having an inner circumferential surface, and configured to receive a counterpart terminal of the counterpart connector inside the inner circumferential surface; a terminal having a contact portion arranged inside the inner circumferential surface, the terminal being to be electrically connected to the counterpart terminal when the contact portion contacts the counterpart terminal; and a cooling mechanism having a heat absorption portion and a heat dissipation portion, the heat absorption portion being provided at a position opposite to the contact portion with respect to the inner circumferential surface.

Abstract: A temperature controller, for a battery, includes: a temperature control part configured to control a temperature of the battery by a phase change of a heat medium between a liquid phase and a gas phase; a gas phase flow passage through which a gas phase heat medium that flows out of the temperature control part flows; a heat medium cooling part configured to condense the gas phase heat medium that flows in from the gas phase flow passage; and a liquid phase flow passage through which the liquid phase heat medium flows from the heat medium cooling part to the temperature control part, the temperature control part and the heat medium cooling part being arranged such that a liquid surface of the liquid phase heat medium in the heat medium cooling part is positioned on an upper side than a liquid surface of the liquid phase heat medium in the temperature control part.

Abstract: A converter can selectively use reactors through an ON-OFF control on relays by an electronic control unit. The first reactor is disposed as a component of the converter separately from a main battery. On the other hand, the second reactor is so disposed as to have a heat transfer path between the second reactor and the main battery. At least based on the output from the temperature sensor, in a low temperature state of the main battery, the electronic control unit turns off the first relay, and turns on the second relay, thereby configuring a reactor of the converter by using the second reactor.

Abstract: A battery temperature regulating device is provided with a low temperature heat exchanger configured to allow heat exchange with the air conditioning system, a battery temperature regulating unit configured to allow heat exchange with the low temperature heat exchanger so as to regulate the temperature of the battery to approach a target temperature, and a control unit configured to control the battery temperature regulating unit. In the case where the charging is performed from the power supply external to the vehicle, the control unit determines whether or not it is necessary to accumulate heat in the battery, and in the case where it is determined that the heat accumulation is necessary, the control unit sets the target temperature of the battery during charging higher than that in the case where it is determined that the heat accumulation is unnecessary.

Abstract: A cooling device for electric equipment includes a cooling unit for cooling an inverter element as a heat source. The cooling unit has a surface on which the inverter element is provided and a back surface disposed on a back side of surface, and includes a heat mass for transferring heat generated by the inverter element, an air-cooling fin provided on the back surface and radiating heat transferred through the heat mass, and an air-conditioner coolant pipeline provided on the surface and forming a coolant passage through which the coolant for vehicle cabin air-conditioning flows. With such configuration, a cooling device for electric equipment excellent in the cooling efficiency is achieved.

Abstract: A converter can selectively use reactors through an ON-OFF control on relays by an electronic control unit. The first reactor is disposed as a component of the converter separately from a main battery. On the other hand, the second reactor is so disposed as to have a heat transfer path between the second reactor and the main battery. At least based on the output from the temperature sensor, in a low temperature state of the main battery, the electronic control unit turns off the first relay, and turns on the second relay, thereby configuring a reactor of the converter by using the second reactor.

Abstract: A temperature controller, for a battery, includes: a temperature control part configured to control a temperature of the battery by a phase change of a heat medium between a liquid phase and a gas phase; a gas phase flow passage through which a gas phase heat medium that flows out of the temperature control part flows; a heat medium cooling part configured to condense the gas phase heat medium that flows in from the gas phase flow passage; and a liquid phase flow passage through which the liquid phase heat medium flows from the heat medium cooling part to the temperature control part, the temperature control part and the heat medium cooling part being arranged such that a liquid surface of the liquid phase heat medium in the heat medium cooling part is positioned on an upper side than a liquid surface of the liquid phase heat medium in the temperature control part.

Abstract: A power storage module includes a plurality of power storage elements extending in a predetermined direction; a holder in which a plurality of openings into each of which each of the plurality of power storage elements is inserted is arranged within a plane perpendicular to the predetermined direction; a heater provided at an end portion in a first direction in the plane of the holder, and disposed linearly in a second direction perpendicular to the first direction in the plane so as to increase a temperature of the power storage elements through the holder; and a busbar unit including a first busbar dividing the plurality of power storage elements in the first direction into a plurality of blocks along the second direction and connecting the plurality of power storage elements in each block in parallel to one another, and a second busbar connecting adjacent blocks in the first direction in series to one another.

Abstract: A cooling device for electric equipment includes a cooling unit for cooling inverter elements. Cooling unit includes a heat mass which has a surface provided with the inverter elements and a back surface arranged on a back side of surface to form a heat mass inner tank arranged between the surface and the back surface and transfers heat generated at the inverter elements, a fin portion which is provided on the back surface and radiates heat transferred through the heat mass, air-conditioner coolant pipelines which are provided on the surface and form a coolant passage through which a coolant for vehicle cabin air-conditioning flows, and a water pump which supplies and discharges coolant water to and from the heat mass inner tank. With such a configuration, a cooling device for electric equipment which is excellent in cooling efficiency is provided.

Abstract: A cooling device utilizes a vapor compression refrigeration cycle including a compressor, a condenser, a receiver, an expansion valve, an evaporator, and an accumulator to cool a heat source with a coolant. The receiver separates the coolant having been subjected to heat exchange by the condenser into gas and liquid. The accumulator separates the coolant having been subjected to heat exchange by the evaporator into gas and liquid. The cooling device opens a switch valve capable of bringing the receiver and the accumulator into communication with each other to move the coolant liquid in the accumulator to the receiver. The cooling device restores the pressure difference between the receiver and the accumulator after the movement of the coolant liquid to the pressure difference before the movement of the coolant liquid by a pressure regulating unit.

Abstract: A battery temperature regulating device is provided with a low temperature heat exchanger configured to allow heat exchange with the air conditioning system, a battery temperature regulating unit configured to allow heat exchange with the low temperature heat exchanger so as to regulate the temperature of the battery to approach a target temperature, and a control unit configured to control the battery temperature regulating unit. In the case where the charging is performed from the power supply external to the vehicle, the control unit determines whether or not it is necessary to accumulate heat in the battery, and in the case where it is determined that the heat accumulation is necessary, the control unit sets the target temperature of the battery during charging higher than that in the case where it is determined that the heat accumulation is unnecessary.

Abstract: A cooling device utilizes a vapor compression refrigeration cycle including a compressor, a condenser, a receiver, an expansion valve, an evaporator, and an accumulator to cool a heat source with a coolant. The receiver separates the coolant having been subjected to heat exchange by the condenser into gas and liquid. The accumulator separates the coolant having been subjected to heat exchange by the evaporator into gas and liquid. The cooling device opens a switch valve capable of bringing the receiver and the accumulator into communication with each other to move the coolant liquid in the accumulator to the receiver. The cooling device restores the pressure difference between the receiver and the accumulator after the movement of the coolant liquid to the pressure difference before the movement of the coolant liquid by a pressure regulating unit.

Abstract: A cooling device capable of improving constancy of the ability of a coolant to cool a heat source is provided. A cooling device-cooling an HV device includes a heat exchanger performing heat exchange between the coolant and air-conditioning air; a cooling unit connected in parallel with the heat exchanger and cooling the HV device using the coolant; an expansion valve provided on a downstream side of the heat exchanger and being regulated in opening degree in accordance with a temperature of the coolant between the heat exchanger and the expansion valve and regulating pressure of the coolant flowing through the heat exchanger; and an expansion valve provided on a downstream side of the cooling unit and being regulated in opening degree in accordance with a temperature of the coolant between the cooling unit and the expansion valve and regulating the pressure of the coolant flowing through the cooling unit.