Abstract: First switches include first electrodes, which are mutually connected with each other via a first internal bus bar, and second electrodes, which are mutually connected with each other via a second internal bus bar. A first resin member encapsulates the first switches and the first and second internal bus bars. Second switches include third electrodes, which are mutually connected with each other via a third internal bus bar, and fourth electrodes, which are mutually connected with each other via a fourth internal bus bar. A second resin member that encapsulates the second switches and the third and fourth internal bus bars. The second module is arranged alongside with the first module. The second internal bus bar and the third internal bus bar are partially exposed from the first resin member and the second resin member, respectively, and are directly joined with each other.

Abstract: A first module includes a first switch having a first electrode and a second electrode; a second switch having a third electrode and a fourth electrode; a second internal bus bar connecting the second electrode with the third electrode; and a first resin member encapsulating those components. A second module with includes a third switch having a fifth electrode and a sixth electrode; a fourth switch having a seventh electrode and an eighth electrode; a fifth internal bus bar connecting the sixth electrode with the seventh electrode; and a second resin member encapsulating those components. At least one of a first terminal of the second internal bus bar exposed from the first resin member and a second terminal of the fifth internal bus bar exposed from the second resin member extends toward the other and are directly joined with each other.

Abstract: A capacitor module includes a capacitor element, a plurality of connection terminals for electrically connecting the capacitor element to a semiconductor module and a power supply that are another equipment, and an exterior coating that includes a resin film having electrical insulating property and wraps the capacitor element except the plurality of connection terminals.

Abstract: The present invention relates to a PGC-1? expression promoting agent, a muscle building agent, or a mitochondria activating agent, which comprises at least one pyrimidine nucleotide or a precursor thereof as an active ingredient.

Abstract: An endoscope flexible tube having a cylindrical flexible tube base that has flexibility and a resin layer that coats the flexible tube base includes the resin layer, which is a single layer or multiple layers of two or more layers, comprises a layer A which comprises: polyester elastomers, at least one of polyurethane elastomers or polyamide elastomers, and both a hindered phenol compound and a hindered amine compound, wherein the content of the polyester elastomers in the layer A is 55 mass % or more.

Abstract: A fastening tool includes a bit holding portion configured to hold a driver bit engageable with a screw and that is rotatable in a circumferential direction and movable in an axial direction of the driver bit, a motor configured to rotate the bit holding portion, a controller configured to control the motor, and a detector configured to detect a state of the motor. In a state where the screw engaged with the driver bit is fastened to a fastening target, the controller determines whether the driver bit and the screw are disengaged based on the state of the motor detected by the detector and stops the rotation of the motor in a case where the controller determines that the driver bit and the screw are disengaged.

Abstract: A power conversion device includes a connector and a sealing member. The connector is connected to a lead-in pipe of a cooling device on the outside of a case. The sealing member makes a watertight seal between a refrigerant flow pipe, which is the lead-in pipe, and the connector. The sealing member includes a connector-side tubular portion, a first watertight seal projection, and a second watertight seal projection. The connector-side tubular portion is located between an inner peripheral surface of the connector and an outer peripheral surface of the lead-in pipe. The first watertight seal projection projects radially outward in an annular shape from the connector-side tubular portion toward the inner peripheral surface of the connector. The second watertight seal projection projects radially inward in an annular shape from the connector-side tubular portion toward the outer peripheral surface of the lead-in pipe.

Abstract: A fastening tool includes a bit holding portion configured to hold a driver bit engageable with a screw and rotatable in a circumferential direction of the driver bit and movable in an axial direction of the driver bit, a motor configured to move the bit holding portion in the axial direction, a controller configured to control output of the motor to control a movement speed of the bit holding portion in the axial direction, and a motor state detector configured to detect a state of the motor. The controller is configured to control the movement speed of the bit holding portion based on the state of the motor when the screw engaged with the driver bit is fastened to a fastening target.

Abstract: A fastening tool includes a bit holding portion configured to detachably hold a driver bit and rotatable in a circumferential direction and movable in an axial direction, a first motor configured to rotate the bit holding portion, a position detector configured to detect a position of the bit holding portion along the axial direction, and a controller configured to drive the first motor to rotate the bit holding portion. The controller is configured to determine, based on the position of the bit holding portion, whether the bit holding portion moves to a forward movement end position and to stop the rotation of the first motor in a case where the bit holding portion does not reach the forward movement end position and a stop condition of the first motor is satisfied.

Abstract: A power module has a semiconductor module and a cooling device. The cooling device has a cooling unit provided in the semiconductor module so as to be capable of conducting heat, a supply pipe configured to supply refrigerant to an interior of the cooling unit, and a discharge pipe configured to discharge the refrigerant that is flowed inside the cooling unit. The semiconductor module and the cooling unit are arranged in a z-direction. The supply pipe and the discharge pipe are spaced apart in a x-direction. Each of the supply pipe and the discharge pipe faces the semiconductor module in a y-direction.

Abstract: In an electronic component cooling device, a cooler cools an electronic component, a coolant temperature acquisition unit acquires a temperature of a coolant, a coolant flow rate acquisition unit acquires the flow rate of the coolant, a heat loss estimation unit estimates a heat loss from the electronic component, and a loss threshold calculation unit calculates an upper limit threshold of the heat loss from the electronic component based on the coolant temperature and the coolant flow rate. A coolant flow rate control unit controls the flow rate of the coolant and is configured to, in response to an estimated heat loss which is the heat loss from the electronic component that has been estimated by the heat loss estimation unit exceeding the upper limit threshold, increase the flow rate of the coolant circulating through the cooler.

Abstract: A first outer conductor and a second outer conductor are assembled to each other. At least one of the first outer conductor and the second outer conductor includes a protrusion portion protruding in a direction of assembly between the first outer conductor and the second outer conductor, and another one of the first outer conductor and the second outer conductor includes a groove portion in which the protrusion portion fits in a state where the first outer conductor and the second outer conductor are assembled. At least one of an outer surface of the protrusion portion and an inner surface of the groove portion is formed with a contact rib. The contact rib extends in the direction of assembly and comes into contact with another one of the outer surface and the inner surface.

Abstract: An outer conductor includes an outer-conductor-side contact portion that is disposed behind a housing and faces backward in a coupled state with the housing. The housing includes a housing-side contact portion facing forward in the coupled state with the outer conductor. The outer-conductor-side contact portion and the housing-side contact portion contact each other in the coupled state between the outer conductor and the housing.

Abstract: An inner conductor includes an extension portion extending from a dielectric toward a circuit board. A second outer conductor includes a bottom surface where an opening portion is open, and a back surface facing backward. The extension portion includes a board connection portion protruding from the opening portion to be connected to a conductive portion of the circuit board. A retraction recessed portion is formed in the bottom surface of the second outer conductor. The retraction recessed portion extends backward from back edge portion of the opening portion in the bottom surface of the second outer conductor and is open in the back surface.

Abstract: First and second outer conductors are each a conductive rigid body. The first outer conductor includes a fitting receiving portion. The second outer conductor includes a fitting portion fit in the fitting receiving portion in a direction of assembly to the first outer conductor. One of an inner surface of the fitting receiving portion and an outer surface of the fitting portion is formed with a recessed portion recessed in a width direction intersecting the assembly direction. Another one of the inner and outer surfaces is formed with a protruding portion protruding in the width direction and fitting in the recessed portion. The inner surface of the recessed portion and the outer surface of the protruding portion include contact surface portions contacting with each other to prevent displacement of the first and second outer conductors in a direction opposite to the assembly direction.

Abstract: A fastening tool includes: a bit holding portion which detachably holds a driver bit and is configured to rotate in a circumferential direction of the driver bit and move in an axial direction of the driver bit; a motor configured to perform at least one of rotation of the bit holding portion and movement of the bit holding portion along the axial direction; and a control unit configured to control a position of the bit holding portion along the axial direction by a rotation amount of the motor. The control unit is configured to stop rotation of the motor based on a load applied to the motor rotated in one direction of moving the bit holding portion in a direction approaching a fastening target.

Abstract: A fastening tool includes: a bit holding portion which detachably holds a driver bit and is configured to rotate in a circumferential direction of the driver bit and move in an axial direction of the driver bit; a first motor configured to rotate the bit holding portion; a second motor configured to move the bit holding portion along the axial direction; and a control unit configured to control a position of the bit holding portion along the axial direction by the number of rotations of the second motor. The control unit is configured to control a moving speed of a screw moved by rotation of the first motor or a rotation speed of the first motor.

Abstract: A fastening tool includes: a bit holding portion which detachably holds a driver bit and is configured to rotate in a circumferential direction of the driver bit and move in an axial direction of the driver bit; a motor configured to move the bit holding portion along the axial direction; and a control unit configured to control a position of the bit holding portion along the axial direction by the number of rotations of the motor. The control unit is configured to execute an initialization operation of setting a standby position of the bit holding portion along the axial direction, and control a position of the bit holding portion along the axial direction from the standby position by the number of rotations of the motor.

Abstract: A power converter includes an inverter, a converter, an electrical-machine busbar, an electrical-machine sensor, an electrical-machine-sensor housing, a converter, a converter busbar, a converter-sensor housing. The inverter supplies a three-phase alternating current to a rotating electrical machine. The converter converts a voltage between a direct current power supply and the inverter. The electrical-machine busbar passes a current between the inverter and the rotating electrical machine. The electrical-machine sensor detects the current flowing through the electrical-machine busbar based on a magnetic field. The electrical-machine-sensor housing accommodates the electrical-machine sensor and the electrical-machine busbar together. The converter sensor detects the current flowing through the converter based on a magnetic field. The converter-sensor housing is disposed apart from the electrical-machine-sensor housing, and accommodates the converter sensor and the converter busbar together.

Abstract: A power converter includes a control circuit executing feedback control of a first inverter based on a detected value of a first sensor adapted to a first rotating electrical machine. The first sensor detects a current of a first busbar adapted to the first rotating electrical machine. The first busbar connects the first inverter and the first rotating electrical machine. A second busbar adapted to a second rotating electrical machine connects a second inverter and the second rotating electrical machine. The second busbar is arranged to be apart from the first sensor interposed with a converter busbar between the second busbar and the first sensor. A current of the converter flows through the converter busbar.