Abstract: Disclosed is a method for producing a non-aqueous electrolyte solution containing a sulfonylimide compound represented by the general formula (1) and an electrolyte solution solvent (B). The method includes preparing a sulfonylimide solution containing the sulfonylimide compound represented by the general formula (1) and an electrolyte solution solvent (A) different from the electrolyte solution solvent (B) and fractionally distilling off the electrolyte solution solvent (A) by adding the electrolyte solution solvent (B) to the sulfonylimide solution obtained in the preparing, LiN(RSO2)(FSO2) (1) (where R represents a fluorine atom, an alkyl group with 1 to 6 carbon atoms, or a fluoroalkyl group with 1 to 6 carbon atoms).

Abstract: Examples of a plasma treatment device include an RF generator, a matching box including an input terminal connected with the RF generator, a sensor configured to sense high-frequency electricity, an impedance adjustment circuit, and an output terminal, a matching controller connected with the sensor and configured to control the impedance adjustment circuit, a reactor chamber connected with the output terminal, and a harmonic filter circuit connected with a transmission line between the sensor and the reactor chamber.

Abstract: A substrate processing apparatus is disclosed. An exemplary substrate processing apparatus includes a reaction chamber; a susceptor positioned within the reaction chamber to be constructed and arranged to support a substrate; a shower plate to be constructed and arranged to face the susceptor; and an RF generator electrically coupled to the shower plate via an RF plate, with the susceptor electrically grounded; wherein the RF plate is provided with a plurality of impedance adjusters.

Abstract: Examples of a plasma treatment device include an RF generator, a matching box including an input terminal connected with the RF generator, a sensor configured to sense high-frequency electricity, an impedance adjustment circuit, and an output terminal, a matching controller connected with the sensor and configured to control the impedance adjustment circuit, a reactor chamber connected with the output terminal, and a harmonic filter circuit connected with a transmission line between the sensor and the reactor chamber.

Abstract: A substrate processing method includes supplying RF power from an RF power supply provided with a linear amplifier to a plasma generation apparatus via an electronic matcher, thereby generating plasma and starting a process on a substrate, and stopping the supply of the RF power from the RF power supply when a prescribed time elapses after the generation of plasma starts.

Abstract: A transfer for a vehicle, the transfer includes an input rotating member, a first output rotating member, a second output rotating member, a high-low switching mechanism, a clutch, a motor, a screw mechanism and a transmitting mechanism. The first output rotating member outputs power to first left and right wheels. The second output rotating member outputs power to second left and right wheels. The high-low switching mechanism changes a rate of rotation from the input rotating member and transmits the rotation to the first output rotating member. The clutch adjusts a transfer torque. The transfer torque is transmitted from the first output rotating member to the second output rotating member. The screw mechanism converts rotational motion of the motor to linear motion. The transmitting mechanism transmits linear motion force of the screw mechanism to both the high-low switching mechanism and the clutch.

Abstract: A substrate processing method includes supplying RF power from an RF power supply provided with a linear amplifier to a plasma generation apparatus via an electronic matcher, thereby generating plasma and starting a process on a substrate, and stopping the supply of the RF power from the RF power supply when a prescribed time elapses after the generation of plasma starts.

Abstract: In a transfer, a high thrust can be given to a front-wheel driving clutch by a high magnification function of a screw mechanism. Further, a necessary stroke for an operation of a high-low switching mechanism can be obtained by the screw mechanism. Accordingly, with the use of one motor, the screw mechanism, and a transmission mechanism, it is possible to perform a switching operation of the high-low switching mechanism and a torque adjustment of the front-wheel driving clutch by the same system. Hereby, it is possible to perform, with accuracy, the switching operation of the high-low switching mechanism and the torque adjustment of the front-wheel driving clutch, based on a motor rotation angle Am of one motor.

Abstract: A method for manufacturing a resin vehicle part provided with a panel body having a decorative surface on the front surface and a stepped reinforcing rib, which stands on the back surface of the panel body and the thickness of the base end of which is formed to be thinner than the thickness of the leading end. On the injection molding die thereof, a sliding piece for forming the stepped reinforcing rib is provided so as to be movable. During shrinkage movement of the stepped reinforcing rib in the height direction after molten resin has been filled in the injection molding die, the sliding piece is pressed by the leading end of the stepped reinforcing rib and moves towards the panel body.

Abstract: A clutch mechanism includes a first and a second rotating members, a clutch hub, a clutch drum, a plurality of friction engagement elements, a piston, a piston driving device and a sleeve. A clutch hub main body of the clutch hub is connected to the first rotating member and does not rotate relative to the first rotating member. An inner hub of the clutch hub rotates relative to the clutch hub main body. The inner hub engages with an inner peripheral side of the friction engagement elements and does not rotate relative to the friction engagement elements. The sleeve does not rotate relative to the inner hub. The sleeve moves relative to the first rotating member. The sleeve moves in conjunction with the piston to a position where the sleeve engages with the clutch hub main body and does not rotate relative to the clutch hub main body.

Abstract: A resin part for a vehicle provided with: a panel body having a design surface; and stepped reinforcing ribs, which are vertically arranged on the inside surface of the panel body, in which the wall thickness of the base end portion is formed to be thinner than the wall thickness of the leading end portion, and in which the side ends at the end in the direction in which the ribs extend (arrow (X) direction) are open. Resin supply ports, to which molten resin is supplied prior to the base end portion, are formed in the leading end portion.

Abstract: In a transfer, a high thrust can be given to a front-wheel driving clutch by a high magnification function of a screw mechanism. Further, a necessary stroke for an operation of a high-low switching mechanism can be obtained by the screw mechanism. Accordingly, with the use of one motor, the screw mechanism, and a transmission mechanism, it is possible to perform a switching operation of the high-low switching mechanism and a torque adjustment of the front-wheel driving clutch by the same system. Hereby, it is possible to perform, with accuracy, the switching operation of the high-low switching mechanism and the torque adjustment of the front-wheel driving clutch, based on a motor rotation angle Am of one motor.

Abstract: A clutch mechanism includes a first and a second rotating members, a clutch hub, a clutch drum, a plurality of friction engagement elements, a piston, a piston driving device and a sleeve. A clutch hub main body of the clutch hub is connected to the first rotating member and does not rotate relative to the first rotating member. An inner hub of the clutch hub rotates relative to the clutch hub main body. The inner hub engages with an inner peripheral side of the friction engagement elements and does not rotate relative to the friction engagement elements. The sleeve does not rotate relative to the inner hub. The sleeve moves relative to the first rotating member. The sleeve moves in conjunction with the piston to a position where the sleeve engages with the clutch hub main body and does not rotate relative to the clutch hub main body.

Abstract: A transfer for a vehicle, the transfer includes an input rotating member, a first output rotating member, a second output rotating member, a high-low switching mechanism, a clutch, a motor, a screw mechanism and a transmitting mechanism. The first output rotating member outputs power to first left and right wheels. The second output rotating member outputs power to second left and right wheels. The high-low switching mechanism changes a rate of rotation from the input rotating member and transmits the rotation to the first output rotating member. The clutch adjusts a transfer torque. The transfer torque is transmitted from the first output rotating member to the second output rotating member. The screw mechanism converts rotational motion of the motor to linear motion. The transmitting mechanism transmits linear motion force of the screw mechanism to both the high-low switching mechanism and the clutch.

Abstract: A resin part for a vehicle provided with: a panel body having a design surface; and stepped reinforcing ribs, which are vertically arranged on the inside surface of the panel body, in which the wall thickness of the base end portion is formed to be thinner than the wall thickness of the leading end portion, and in which the side ends at the end in the direction in which the ribs extend (arrow (X) direction) are open. Resin supply ports, to which molten resin is supplied prior to the base end portion, are formed in the leading end portion.

Abstract: When the fuel supply to an internal combustion engine has stopped due to a vehicle starting to decelerate or the like, and the speed of the vehicle is greater than a predetermined speed, then a controller causes a power generator to operate in a first power generating mode. The controller charges a capacitor by using regenerative power that is output from the power generator to supply power from the power generator to the capacitor via a DC-DC converter. When the stopping of the fuel supply to the internal combustion engine is cancelled as a result of the engine revolution speed reaching a predetermined revolution speed (for example, an idling revolution speed) in conjunction with the speed of the vehicle dropping to the predetermined speed, the power generator can be kept in the first power generating mode.

Abstract: A method for manufacturing a resin vehicle part provided with a panel body having a decorative surface on the front surface and a stepped reinforcing rib, which stands on the back surface of the panel body and the thickness of the base end of which is formed to be thinner than the thickness of the leading end. On the injection molding die thereof, a sliding piece for forming the stepped reinforcing rib is provided so as to be movable. During shrinkage movement of the stepped reinforcing rib in the height direction after molten resin has been filled in the injection molding die, the sliding piece is pressed by the leading end of the stepped reinforcing rib and moves towards the panel body.

Abstract: When the fuel supply to an internal combustion engine has stopped due to a vehicle starting to decelerate or the like, and the speed of the vehicle is greater than a predetermined speed, then a controller causes a power generator to operate in a first power generating mode. The controller charges a capacitor by using regenerative power that is output from the power generator to supply power from the power generator to the capacitor via a DC-DC converter. When the stopping of the fuel supply to the internal combustion engine is cancelled as a result of the engine revolution speed reaching a predetermined revolution speed (for example, an idling revolution speed) in conjunction with the speed of the vehicle dropping to the predetermined speed, the power generator can be kept in the first power generating mode.

Abstract: A lubricant discharging mechanism of a clutch apparatus for a transmission, which includes the clutch apparatus having at least one clutch mechanism provided in a clutch housing defined in a transmission case and a gear train provided in a gear train housing defined in the transmission case adjacent to the clutch housing, includes a retainer, a bore, and a guide member. The retainer is provided inside the clutch housing to surround the clutch mechanism for retaining therein a lubricant for lubricating and cooling the clutch mechanism. The bore is formed at an outer circumferential portion of the retainer for discharging therethrough the lubricant lifted radially outwardly by a centrifugal force generated by a rotation of the clutch mechanism to an outside of the retainer. The guide member is connected to the retainer for guiding the lubricant discharged from the retainer towards the gear train.

Abstract: A cooling structure of a clutch apparatus for a transmission includes a housing, a partition wall provided inside the housing, first and second chambers respectively formed inside the housing at first and second sides of the partition wall, a clutch mechanism provided inside the first chamber. A cylindrical clutch case including an opening is provided at an outer circumference of the clutch mechanism. The cooling structure further includes a first communication passage communicating with the first and second sides of the partition wall, at least one helical protrusion provided at an outer cylindrical surface of the clutch case, and a guiding cylinder provided at an outer circumference of the clutch case with a space between the helical protrusion and the guiding cylinder. The helical protrusion guides the coolant existing between the clutch case and the guiding cylinder to the first chamber from an axial end portion of the guiding cylinder.