Abstract: A motor may include a rotor and a stator. The stator may include first and second stator assemblies. Each stator assembly may include a coil wound around a tube-shaped body part of a bobbin comprising a terminal block; and first and second stator cores disposed on opposite sides of the coil. The first stator cores of the first and second stator assemblies are welded together at outer peripheries of the first stator cores of the first and second stator assemblies. The welded portion may be covered by the terminal block of one of the first stator assembly or the second stator assembly on an outer side in the radial direction with a predetermined space between the welded portion and the terminal block.

Abstract: In a motor, a wire terminal, to which an end at an end of winding of a wire is connected, is held by an insulator that is held by a stator core. The wire terminal comprises: a substrate connection section; plural legs held by a split insulator; a plate section, a thickness direction of which faces a radial direction, between the legs and the substrate connection section; and a wire connection section, a portion of which projected from the plate section is bent to hold the wire on an inner side. An elastic section is a meandering section meandering to turn back in a circumferential direction between the plate section and the substrate connection section, and extends from an end on another side in the circumferential direction of the plate section toward the substrate connection section.

Abstract: An optical unit with shake-correction function is provided and includes: a movable body, a rotational support structure, a gimbal mechanism, a fixed body, and a rolling corrective-magnet drive structure. The rotational support structure, which supports the movable body to be rotatable around an optical axis, is rotatably supported by the gimbal mechanism around two axes intersecting with the optical axis. The rotational support structure includes a first annular groove provided on the movable body, a plate roller including a second annular groove facing the first annular groove, and multiple spherical objects inserted in the first annular groove and the second annular groove. The gimbal mechanism supports the plate roller to be rotatable. The rolling corrective-magnet drive structure, which rotates the movable body around the optical axis, includes a rolling corrective magnet on the movable body side, and two rolling corrective coils on the fixed body side.

Abstract: A lens unit may include lenses and a holder in a tube shape which holds the lenses on an inner side such that in the lenses, a side face of a first lens located on a most object side may include a first side face part which is extended from an outer edge of a first face that is an object side face of the first lens toward an image side, a second side face part which is extended from an object side toward the image side on the image side with respect to the first side face part and an outer side in a radial direction with respect to the first side face part; and a third side face part which connects an image side end part of the first side face part with an object side end part of the second side face part.

Abstract: An optical unit having a shake correction function may include a movable body including an optical module; a fixed body that supports the movable body in a swingable manner; a swing drive mechanism that includes a magnet and a coil forming a magnet-coil pair, with a counterpart of the magnet-coil pair being fixed to the movable body and another counterpart to the fixed body, and swings the movable body relative to the fixed body; a magnetic detection sensor that detects a magnetic field of the magnet; and a magnetic member that returns the movable body to an original position by a magnetic attraction force with the magnet. The magnetic detection sensor overlaps the magnetic member as viewed in a direction orthogonal to a thickness direction of the magnetic member.

Abstract: An optical unit with a shake correction function includes a reflection member reflecting light entering from the outside, a movable body turnably holding the reflection member, a fixed body turnably holding the movable body, a drive mechanism structured to turn the reflection member with respect to the movable body and turn the movable body with respect to the fixed body, and a turning axis part structuring a turning center of the movable body with respect to the fixed body. The movable body is capable of turning with respect to the fixed body with a first direction as an axial direction of turning, and the turning axis part includes a first ball disposed on one side of the movable body, a second ball disposed on the other side of the movable body and contacted with the fixed body, and an urging member which urges the first ball toward the second ball.

Abstract: A discharge circuit for a power supply circuit for a motor is configured to discharge a capacitor provided in the power supply circuit. The discharge circuit includes a first voltage detector detecting a voltage inputted to a primary side of the power supply circuit, a second voltage detector detecting a voltage on the secondary side, and a discharge resistance provided in parallel with the power supply circuit on the secondary side of the power supply circuit. A power supply control means performs discharge control when a voltage detected by the second voltage detector exceeds a regenerative determination value and, in a case that a voltage on the primary side detected by the first voltage detector becomes lower than a power failure determination value, the power supply control means performs the discharge control after a lapse of a time period required for a stop operation of the industrial robot.

Abstract: An optical unit with a shake correction function rotates a movable body around X, Y, and Z axes to perform a shake correction. The optical unit with a shake correction function includes a flexible printed board pulled out from the movable body in a +X direction and a board support part to support the flexible printed board at a position away from the movable body in an X-axis direction. The flexible printed board includes a first extending part pulled out from the movable body in the +X direction along an XY plane, a meandering part extending in a Y-axis direction while meandering in the X-axis direction after being curved in a Z-axis direction from an end of the first extending part in the Y-axis direction, and a second extending part extending in the +X direction along the XY plane in the +X direction of the meandering part.

Abstract: An ice making device includes an ice tray, an ice separating mechanism which is a mechanism structured to take out ice pieces from the ice tray, a drive part structured to drive the ice separating mechanism, and a frame which supports the ice tray and the drive part. The frame is provided with a water passage part which guides water supplied from an outside to the ice tray, and the frame is attached with a water supply adaptor which is a water passage member separately provided from the water passage part for supplying the water to the water passage part.

Abstract: A non-contact type information processing device structured to communicate with a medium in a non-contact manner may include a first circuit part having a first antenna, and the first circuit part may be configured to communicate with the medium at a first resonance frequency by electromagnetic induction. The non-contact type information processing device may further include a second circuit part having a second resonance frequency which is separated from the first resonance frequency, and the second circuit part may include a second antenna and a light emitting element which is operated by electric power obtained by an induced current that is received by the second antenna.

Abstract: An optical unit with a shake correction function includes a movable module and a fixed body. The movable module has a lens and is supported by the fixed body to be capable of moving in a direction orthogonal to an optical axis of the lens. The fixed body surrounds the movable module from an outer periphery side. The movable module includes a first substrate and a second substrate, with a thickness direction of either substrate being consistent with the direction along the optical axis. An image sensor is disposed on the first substrate. The second substrate is electrically connected to the first substrate to overlap the first substrate on an image side, and is smaller in shape than the first substrate when viewed along the optical axis of the lens. A flexible printed circuit board is led out from an outer circumferential surface of the second substrate.

Abstract: Provided is a lens unit capable of maintaining suitable image formation characteristics even with changes in temperature. The fourth lens outer peripheral face of a fourth lens is not in contact with the inner peripheral face of a second accommodation part. A fifth lens is made of glass, is press fitted and fixed to a resin-made lens holder to form an integrated fifth lens body, and is housed in a lens-barrel. A stepped part formed to engage with a stepped part in the fourth lens is provided in the lens holder outside the fifth lens on the object side of the fifth lens body. A fifth lens body outer peripheral face that is an outermost peripheral face of the fifth lens body comes in contact with the inner peripheral face of the second accommodation part.

Abstract: A lens unit includes a first lens disposed on an object side in an optical axis direction, a plurality of image-side lenses (second lens through seventh lens) comprising a second lens facing the first lens on an image side in the optical axis direction and disposed on the image side with respect to the first lens, a lens barrel coaxial with the optical axis to hold the first lens and the plurality of image-side lenses radially inside, a first sealing member to seal a gap between the first lens and the lens barrel, and a second sealing member to seal a gap between an image side surface (flange surface) of the first lens and the lens barrel radially inside the first sealing member.

Abstract: An optical unit having a shake correction function may include a movable body including an optical module, a fixed body that supports the movable body via a gimbal mechanism, and a shake correction drive mechanism that swings the movable body around a first axis and a second axis intersecting each other. The shake correction drive mechanism may be disposed on two intersecting faces out of four faces of the movable body. A first flexible printed circuit board may be led out from one of the two faces, of which the shake correction drive mechanism is not disposed on either.

Abstract: A lens unit may include a plurality of lenses; and a cylindrical holder. The plurality of lenses may include a cemented lens having a second lens element bonded to a first lens element with an adhesive layer interposed therebetween. The first lens element may be a plastic lens having a convex lens surface and a first flange unit at an outer peripheral side. The second lens element may be a plastic lens having a concave lens surface bonded by the adhesive layer onto the convex lens surface of the first lens element and a second flange unit at an outer peripheral side. One of the first and second lens elements may be in contact with the holder, and the may not be in contact with the holder. The first and second cemented lens elements may include an optical axial direction abutment surface and a radial direction abutment surface.

Abstract: To provide a card reader that encrypts information acquired via an IC contact block. A card reader includes: an IC contact block including a contact spring capable of being in contact with an external connection terminal of an IC chip of a card; a flexible printed board to which a spring end of the contact spring is coupled; an encryption circuit mounted on the flexible printed board and electrically connected to the contact spring to encrypt information acquired from the IC chip via the IC contact block; and a resin sealing member that integrally covers the spring end and the encryption circuit.

Abstract: An optical unit includes: a reflective portion that reflects, on a reflective surface, an incident light flux incident from the outside in a reflection direction toward an imaging element from an incident direction; a movable body to which the reflective portion is fixed; and a fixed body. In the movable body, emboss processing is applied to at least one of a reflective surface contact surface in contact with the reflective surface, and a side surface contact surface in contact with a side surface of the reflective portion on a side of an intersecting direction intersecting with the incident direction and the reflection direction.

Abstract: An optical unit with a shake correction function may include an optical module having an optical element and an image pickup element, a movable body holding the optical module, a swing support mechanism swingably supporting the movable body, a fixed body supporting the movable body through the swing support mechanism, a shake correction drive mechanism structured to swing the movable body, and a stopper mechanism structured to restrict a movable range of the movable body. The stopper mechanism may include a spacer member in the movable body which includes a stopper protruded part extended to an opposite side to an object to be photographed with respect to the image pickup element, and a stopper member to abut with the stopper protruded part of the spacer member. The spacer member may be fixed to a member different from the optical module in the movable body.

Abstract: A motor may include a rotor provided with a rotating shaft that protrudes to a first side in an axial direction; a stator disposed on an outer peripheral side of the rotor; a resin sealing member that covers the stator; and a cover member that is disposed on the first side of the resin sealing member and supports the rotating shaft. The cover member may include a plurality of gate marks disposed at different angular positions and a plurality of ribs that protrude to a second side in the axial direction. The ribs may be disposed at positions where each midpoint between the gate marks adjacent to each other in the circumferential direction overlap with an axis of the rotor.

Abstract: A pump device may include a motor, an impeller to turn by use of drive power of the motor, and a circuit board for controlling the motor; the pump device being able to become low-profile in an axial direction of a turning center shaft as a turning center of the impeller. In a pump device, there are formed a wall part surrounding a circuit board and a substrate contacting surface, which contacts a lower surface of the circuit board in order to locate circuit board, in a pump case. In the wall part, there is shaped a cutout part that is cut out downward from an upper end surface of the wall part, and meanwhile a leading wire, whose one end side is soldered to the circuit board, passes through the cutout part in such a way as to be drawn out to an outer side of the wall part. In the pump device, a cutout bottom part, which is a lower end part of the cutout part, and the leading wire do not contact each other so as to be detached from each other.