Abstract: A cable deterioration diagnosis device configured to diagnose deterioration of a cable having a plurality of electrical wires including one or more signal wires configured to transmit signals between a first device and a second device, and includes a test signal output unit configured to output a wave-like test signal to a test signal transmitting wire independent of the one or more signal wires among the plurality of electrical wires, a test signal extraction unit configured to extract a received test signal corresponding to the test signal from a signal propagated in a test signal receiving wire independent of the one or more signal wires and the test signal transmitting wire among the plurality of electrical wires, and a deterioration detection unit configured to detect the deterioration of the cable based on the test signal and the received test signal.

Abstract: A current detection apparatus includes first current detection circuitry configured to detect a current flowing through a conductive wire with a shunt resistor connected to the conductive wire to obtain a first detected current value; second current detection circuitry configured to detect the current with a Hall element to obtain a second detected current value; a storage configured to store a first probability distribution information of the first current detection circuitry and a second probability distribution information of the second current detection circuitry; synthesis circuitry configured to convert the first and second detected current values into first and second probability distributions based on the first and second probability distribution information, respectively, and to synthesize the first and second probability distributions to obtain a synthesized distribution; and estimation circuitry configured to obtain an estimated current value via a maximum likelihood estimation based on the synthes

Abstract: A vehicle includes a floor including a lower floor on which a high-voltage electric component is arranged and an upper floor which is arranged on an upper side of the lower floor. The vehicle includes a seat and a base. The seat is arranged above the high-voltage electric component and includes a leg portion. The base is fixed to the lower floor and is arranged on an inside in a vehicle width direction. The leg portion includes: a first leg portion that is fixed to the upper floor; and a second leg portion that is fixed to the base.

Abstract: A cable deterioration diagnosis device configured to diagnose deterioration of a cable having a plurality of electrical wires including one or more signal wires configured to transmit signals between a first device and a second device, and includes a test signal output unit configured to output a wave-like test signal to a test signal transmitting wire independent of the one or more signal wires among the plurality of electrical wires, a test signal extraction unit configured to extract a received test signal corresponding to the test signal from a signal propagated in a test signal receiving wire independent of the one or more signal wires and the test signal transmitting wire among the plurality of electrical wires, and a deterioration detection unit configured to detect the deterioration of the cable based on the test signal and the received test signal.

Abstract: In order to respond flexibly to various processing modes, such as forming curved surface shapes, when cutting a workpiece using a wire saw, this wire saw device (1) is provided with: a single robot arm (2) that is capable of moving freely by means of multi-axis control; a wire saw unit (3) that is detachably connected to the robot arm (2) via a tool changer (7); a wire (8) that spans a plurality of pulleys supported within the wire saw unit (3); and a workpiece cutting zone (20) that is established between the pulleys. The workpiece is cut to a prescribed shape by moving the robot arm (2) in a preset direction while running the wire (8) of the wire saw unit (3) and pressing the wire (8) against the supported workpiece.

Abstract: A current detection apparatus includes first current detection circuitry configured to detect a current flowing through a conductive wire with a shunt resistor connected to the conductive wire to obtain a first detected current value; second current detection circuitry configured to detect the current with a Hall element to obtain a second detected current value; a storage configured to store a first probability distribution information of the first current detection circuitry and a second probability distribution information of the second current detection circuitry; synthesis circuitry configured to convert the first and second detected current values into first and second probability distributions based on the first and second probability distribution information, respectively, and to synthesize the first and second probability distributions to obtain a synthesized distribution; and estimation circuitry configured to obtain an estimated current value via a maximum likelihood estimation based on the synthes

Abstract: A liquid discharge head includes a plurality of discharge holes, a plurality of pressurizing units, a plurality of drive circuits, a switch circuit, and first and second control circuits. The drive signals include a first signal for a pixel of a first size and a second drive signal for a pixel of a second size. The second control circuit controls the switch circuit so that each of the plurality of pressurizing units is connected to the drive circuit outputting the first signal when a droplet forming the pixel of the first size is discharged and is connected to the drive circuit outputting the second signal when a droplet forming the pixel of the second size is discharged. The first control circuit controls the drive circuits so that the drive circuits in charge of outputting the first signal is changed among the plurality of drive circuits.

Abstract: In order to respond flexibly to various processing modes, such as forming curved surface shapes, when cutting a workpiece using a wire saw, this wire saw device (1) is provided with: a single robot arm (2) that is capable of moving freely by means of multi-axis control; a wire saw unit (3) that is detachably connected to the robot arm (2) via a tool changer (7); a wire (8) that spans a plurality of pulleys supported within the wire saw unit (3); and a workpiece cutting zone (20) that is established between the pulleys. The workpiece is cut to a prescribed shape by moving the robot arm (2) in a preset direction while running the wire (8) of the wire saw unit (3) and pressing the wire (8) against the supported workpiece.

Abstract: In a breather structure of a transmission, a gear chamber of the transmission is disposed between an engine and an electric motor control device for an electric motor, and a breather piping is inserted into a breather hole in an upper wall of the gear chamber. When viewed from above, in a vehicle width direction, a part of an intake system member and the electric power control device are overlapped together, and a part of the intake system member and the gear chamber are overlapped together. Therefore, a direction of water splashed up from a road surface and flowing forward is changed downward so that the breather hole is easily covered with water. However, since an atmosphere opening part of the breather piping is disposed above the electric motor chamber, even if the breather hole is covered with water, a breather function is not lost.

Abstract: Provided is a lubricating fluid supply structure of a power transmission device capable of stably supplying a lubricating fluid to a built-in part to which the lubricating fluid is supplied with a high priority. A supply pipe (64a) includes a first main pipe line (L1) connected to a priority part, a second main pipe line (L2) connected to a non-priority part, and an intermediate pipe line (LM) connecting the first main pipe line (L1) and the second main pipe line (L2) to each other. A first height (H1) of a connection part of the first main pipe line (L1) connected to the intermediate pipe line (LM) is lower than a second height (H2) located at the highest position in a flow path bottom surface of the intermediate pipe line (LM).

Abstract: A lubrication structure of a power transmission device, includes a housing including a bottom space to store lubricating fluid in which a rotating body is immersed to be lubricated, a partition dividing the bottom space into a first space in which a rotating body is provided and a second space opening to the first space, a tubular duct including a projection duct projecting in a projection direction from an end of the first space to the second space such that the first space and the second space communicate with each other via the tubular duct, and a strainer provided in the second space and including a suction inlet through which the strainer is configured to suction the lubricating fluid stored in the bottom space, the suction inlet being located between the end of the first space and a tip end of the projection duct in the projection direction.

Abstract: An arc welding system includes an arc welding portion that executes an arc welding, an arc welding power supply that supplies a weld voltage and a weld current to the arc welding portion, an analyzer including analyzer circuitry that performs a frequency analysis on a time series waveform of at least one of the weld voltage and the weld current and generates frequency spectral data, and a determiner including determiner circuitry that obtains a welding state of a welding work by the arc welding portion based on the frequency spectral data generated by the analyzer.

Abstract: In a breather structure of a transmission, a gear chamber of the transmission is disposed between an engine and an electric motor control device for an electric motor, and a breather piping is inserted into a breather hole in an upper wall of the gear chamber. When viewed from above, in a vehicle width direction, a part of an intake system member and the electric power control device are overlapped together, and a part of the intake system member and the gear chamber are overlapped together. Therefore, a direction of water splashed up from a road surface and flowing forward is changed downward so that the breather hole is easily covered with water. However, since an atmosphere opening part of the breather piping is disposed above the electric motor chamber, even if the breather hole is covered with water, a breather function is not lost.

Abstract: A liquid discharge head includes a plurality of discharge holes, a plurality of pressurizing units, a plurality of drive circuits, a switch circuit, and first and second control circuits. The drive signals include a first signal for a pixel of a first size and a second drive signal for a pixel of a second size. The second control circuit controls the switch circuit so that each of the plurality of pressurizing units is connected to the drive circuit outputting the first signal when a droplet forming the pixel of the first size is discharged and is connected to the drive circuit outputting the second signal when a droplet forming the pixel of the second size is discharged. The first control circuit controls the drive circuits so that the drive circuits in charge of outputting the first signal is changed among the plurality of drive circuits.

Abstract: Provided is a flow path structure of a power transmission device which is capable of removing gas from a lubricating fluid guided to a fluid reservoir while suppressing an increase in a size of the entire power transmission device. A gasket (63) has an extending portion which extends toward an inside of a transmission case (31). A flow path (70) which extends from an upper portion to a lower portion and guides lubricating oil discharged from a discharge mechanism (64) to an oil reservoir is formed inside the transmission case (31) using the extending portion. The discharge mechanism (64) discharges the lubricating oil toward an inner surface of the flow path (70).

Abstract: Provided is a power transmission device lubricating structure capable of preventing air from being mixed with a lubricating fluid while suppressing a resistance applied from the lubricating fluid to a rotation body in a casing. A lubricating structure includes a strainer which includes a suction port and partition members which divide an inner space of a transmission casing. The partition members define a differential room accommodating a final driven gear and a strainer room accommodating the strainer and communicating with the differential room at an upper portion thereof.

Abstract: Provided is a casing of a power transmission device which is capable of preventing a position of a gasket from being displaced without performing a complicated assembling process while suppressing an increase in a size of the entire power transmission device. A gasket (63) interposed between a TC side case member (61) and a TM side case member (62) has a first held portion (63a) which extends toward an inside of the TM side case member. A discharge mechanism (64) fixed to the TM side case member (62) has a first holding portion (64a1) which comes into contact with the first held portion (63a) from the TC side case member (61) side. The gasket (63) is held by the TM side case member (62) by sandwiching the first held portion (63a) between the TM side case member (62) and the first holding portion (64a1).

Abstract: In order to respond flexibly to various processing modes, such as forming curved surface shapes, when cutting a workpiece using a wire saw, this wire saw device (1) is provided with: a single robot arm (2) that is capable of moving freely by means of multi-axis control; a wire saw unit (3) that is detachably connected to the robot arm (2) via a tool changer (7); a wire (8) that spans a plurality of pulleys supported within the wire saw unit (3); and a workpiece cutting zone (20) that is established between the pulleys. The workpiece is cut to a prescribed shape by moving the robot arm (2) in a preset direction while running the wire (8) of the wire saw unit (3) and pressing the wire (8) against the supported workpiece.

Abstract: A lubrication structure of a power transmission device, includes a housing including a bottom space to store lubricating fluid in which a rotating body is immersed to be lubricated, a partition dividing the bottom space into a first space in which a rotating body is provided and a second space opening to the first space, a tubular duct including a projection duct projecting in a projection direction from an end of the first space to the second space such that the first space and the second space communicate with each other via the tubular duct, and a strainer provided in the second space and including a suction inlet through which the strainer is configured to suction the lubricating fluid stored in the bottom space, the suction inlet being located between the end of the first space and a tip end of the projection duct in the projection direction.