Abstract: A method for producing a power storage device includes placing a lid assembly that includes a lid and a terminal member integrated therewith via a resin member to close an opening portion of a case body with the lid, and laser-welding the opening portion of the case body and the peripheral portion of the lid over an entire circumference. In placing the lid assembly, a peripheral high-level region, in which a peripheral outer surface of the peripheral portion of the lid is located on the outer side relative to an opening end surface of the opening portion of the case body is provided in proximate long-side opening portions, close of the opening portion and proximate long-side peripheral portions of the peripheral portion.

Abstract: A method for producing a power storage device includes forming a lid, forming a lid assembly, closing, and welding. In forming a lid, there is included forming, by forging, a protruding portion between a peripheral portion and an insertion-hole surrounding portion of the lid to block scattered light of a laser beam from being irradiated to a resin member, with a distance D from an end surface of the peripheral portion to a side surface of the protruding portion falling within 0.5t (D?0.5t) relative to a thickness t of the lid.

Abstract: A method for producing a power storage device includes closing an opening portion of a case body with a lid of a lid assembly, and laser-welding the opening portion of the case body and a peripheral portion of the lid over their entire circumference. A resin member has an outer surface including a scattered light-reached surface to which scattered light of a laser beam directly reaches, at least a part of the scattered light-reached surface including a smoothed region having a surface roughness of 0.6 ?m or less.

Abstract: A ceramic electronic component includes: a ceramic body including a pair of end surfaces, and a side surface connecting the pair of end surfaces and including a pair of end regions adjacent to the pair of end surfaces and an intermediate region located between the pair of end regions; and a pair of external electrodes including a pair of base layers that cover the pair of end surfaces and the pair of end regions of the side surface and include outer surfaces, a difference of a surface roughness Ra of the outer surfaces with respect to the intermediate region of the side surface being 40 nm or less, and a pair of plating layers covering the outer surfaces of the pair of base layers and including a pair of extending portions extending from the outer surfaces of the pair of base layers to the intermediate region of the side surface.

Abstract: A ceramic electronic component includes: a ceramic body including a pair of end surfaces, and a side surface connecting the pair of end surfaces and including a pair of end regions adjacent to the pair of end surfaces and an intermediate region located between the pair of end regions; and a pair of external electrodes including a pair of base layers that cover the pair of end surfaces and the pair of end regions of the side surface and include outer surfaces, a difference of a surface roughness Ra of the outer surfaces with respect to the intermediate region of the side surface being 40 nm or less, and a pair of plating layers covering the outer surfaces of the pair of base layers and including a pair of extending portions extending from the outer surfaces of the pair of base layers to the intermediate region of the side surface.

Abstract: Each brush holder is formed by bending a holder material made of a metal plate, so that the brush holder is shaped into a generally rectangular tubular body, which includes opposed first and second lateral walls, a top wall and a base wall. A base plate includes holder limiting grooves. Each brush holder is received in a corresponding one of the limiting grooves. The limiting groove limits an increase in a space between the first lateral wall and the second lateral wall of the corresponding brush holder. Furthermore, each brush is received in a corresponding one of the brush holders in a slidable manner in a sliding direction toward and away from a commutator of a motor.

Abstract: Each brush holder is formed by bending a holder material made of a metal plate, so that the brush holder is shaped into a generally rectangular tubular body, which includes opposed first and second lateral walls, a top wall and a base wall. A base plate includes holder limiting grooves. Each brush holder is received in a corresponding one of the limiting grooves. The limiting groove limits an increase in a space between the first lateral wall and the second lateral wall of the corresponding brush holder. Furthermore, each brush is received in a corresponding one of the brush holders in a slidable manner in a sliding direction toward and away from a commutator of a motor.

Abstract: The brush holder device includes a holder base, metal brush holders and metal terminal plate elements. Each brush holder slidably receives a corresponding brush. Each brush holder includes securing claws, which are secured to the holder base by staking. Each securing claw includes a retorted portion, which is retorted toward a rear surface of the holder base beyond a top of a corresponding staking projection that projects from the rear surface of the holder base. Each metal terminal plate element also includes securing claws, each of which is similar to that of the brush holder.

Abstract: The brush holder device includes a holder base, metal brush holders and metal terminal plate elements. Each brush holder slidably receives a corresponding brush. Each brush holder includes securing claws, which are secured to the holder base by staking. Each securing claw includes a retorted portion, which is retorted toward a rear surface of the holder base beyond a top of a corresponding staking projection that projects from the rear surface of the holder base. Each metal terminal plate element also includes securing claws, each of which is similar to that of the brush holder.

Abstract: Brush holding device includes a brush, a brush holder, a torsion spring and a support pin. The torsion spring applies side pressure to the brush by spring force exerted around the support pin and also temporarily hold the brush in the brush holder. When the temporarily held state of the brush holder is relieved, the spring force of the torsion spring urges the brush toward a commutator.

Abstract: A wiper motor has brushes slidable in contact with a commutator, choke coils connected in series with the brushes, and a circuit breaker for preventing burn-out caused by excessively high current. The circuit breaker is disposed in the vicinity of the choke coils and operates based on heat generated by the choke coils.

Abstract: Brush holding device includes a brush, a brush holder, a torsion spring and a support pin. The torsion spring applies side pressure to the brush by spring force exerted around the support pin and also temporarily hold the brush in the brush holder. When the temporarily held state of the brush holder is relieved, the spring force of the torsion spring urges the brush toward a commutator.

Abstract: A spindle and a position-limiting ridge protrude from an inner surface of a cover to rotatably support a follower made of an electrically conductive metal plate. A cylindrical engaging portion of the follower slidably engages the spindle. A toothed washer is fitted around the spindle to clamp a contact portion of the follower between the position-limiting ridge and the toothed washer in a rotatable manner. A switching pattern is provided in the inner surface of the cover. Contact terminals that engage and disengage with the switching pattern based on rotation of the follower are integrally formed in the follower. An engaging hole penetrates through the follower. An engaging protrusion on a carrier is received within the engaging hole. The follower is rotated through engagement between the engaging protrusion and the engaging hole when the carrier rotates in a forward rotational direction.

Abstract: A spindle and a position-limiting ridge protrude from an inner surface of a cover to rotatably support a follower made of an electrically conductive metal plate. A cylindrical engaging portion of the follower slidably engages the spindle. A toothed washer is fitted around the spindle to clamp a contact portion of the follower between the position-limiting ridge and the toothed washer in a rotatable manner. A switching pattern is provided in the inner surface of the cover. Contact terminals that engage and disengage with the switching pattern based on rotation of the follower are integrally formed in the follower. An engaging hole penetrates through the follower. An engaging protrusion on a carrier is received within the engaging hole. The follower is rotated through engagement between the engaging protrusion and the engaging hole when the carrier rotates in a forward rotational direction.

Abstract: A motor control apparatus for a motor having a plurality of operation modes includes a rotary wheel rotatable with the motor, a rotary switch for turning on or off according to rotation of motor rotary wheel, a first circuit including the rotary switch for supplying electric power to the motor via the rotary switch, a second circuit for supplying electric power separately, an operator switch for operating one of motor first and second circuits, and means for reducing electric potential thereof when operator switch operates motor second circuit. The first circuit and the second circuit are connected to the motor separately from each other, and the means is connected to the rotary switch.

Abstract: A wiper motor has brushes slidable in contact with a commutator, choke coils connected in series with the brushes, and a circuit breaker for preventing burn-out caused by excessively high current. The circuit breaker is disposed in the vicinity of the choke coils and operates based on heat generated by the choke coils.

Abstract: A wiper blade wipes over a predetermined range of a front windshield in response to rotation of a wiper motor in a forward and reverse directions. The wiper blade operates in a wiping range between a predetermined upper reversing position and a predetermined lower reversing position. An upper pre-reversing position is defined inside of the upper reversing position, and a lower pre-reversing position is defined inside of the lower reversing position. A rotation sensor produces pulse signals in response to the rotation of the wiper motor. A CPU counts the pulse signals produced from the rotation sensor when a position detection sensor detects an arrival of the wiper blade at the pre-reversing position. The CPU produces a control signal to a drive circuit and reverses the direction of the drive current of the wiper motor to reverse the rotation of the wiper motor, when the pulse count value reaches a predetermined value.

Abstract: An electric noise suppressor for a direct current motor comprises a grommet, a choke coil and an electrical terminal. The grommet has an accommodating portion for accommodating the choke coil, an engaging portion for being engaged with a brush holding board of the motor, and a holding portion for holding the terminal. A pair of supporting portions for supporting a pigtail connector are formed to symmetrically protrude from an upper peripheral portion of the accommodating portion. Therefore, the terminal and the pigtail connector are disposed outside the accommodating portion of the grommet, thereby enabling inductance of the choke coil to increase. Further, the pigtail connector, the choke coil and the terminal are restricted from moving and chattering. As a result, the electrical noise suppressor requires less mounting space and is highly reliable.