Abstract: A support (611) that is substantially cylindrical so as to be received by a disk hole (1NA) and has a positioning portion (612) on a circumference adjacent to a first axial end is provided with a concave portion (613) of which both ends open to the circumference along a radial direction. A first engaging portion (614) protrudes from around the circumference at which a first axial end of the concave portion opens substantially opposes to the positioning portion with a gap equal to or more than a thickness of an optical disk (1N). A moving member (615) is disposed in the concave portion in a manner movable along a radial direction of the support. A second engaging portion (616) protrudes on an end of the moving member at a position corresponding to a second axial end of the concave portion.

Abstract: In-vehicle electronic equipment includes an operation display panel, an opening-closing mechanism, a housing unit, a photosensor, and a control device. The opening-closing mechanism selectively moves the operation display panel to an open position and a closed position. The housing unit is configured to house an electronic device together with a connector connected to the electronic device. The photosensor detects whether an electronic device is housed in the housing unit. The control device controls the opening-closing mechanism. When the photosensor detects that no electronic device is housed in the housing unit while the operation display panel is in the open position, the control unit controls the opening-closing mechanism not to bring the display unit to the closed position.

Abstract: A connecting-side connector is connected to a receiving-side connector. A main frame supports the receiving-side connector in such a manner that the receiving-side connector is movable in a connection direction. A control unit performs a control of a movement of the receiving-side connector in the connection direction and a release of the control each time a pressing force is applied to the connecting-side connector in the connection direction.

Abstract: A disc transfer section for transferring an optical disc by guide members and a transfer roller is disposed adjacent to an opening of a casing 110. A detector 500 for detecting the optical disc is disposed adjacent to the opening. When unloading the optical disc, the peripheral edge of the optical disc contacts with slide members so that the slide members are slid, thereby sensor switches SW1 to SW4 are appropriately switched on and off. Based on a time difference between the timings of the on/off switchings, the relation between a movement trajectory of the center of the optical disc and an axis of symmetry that is a straight line indicating a transfer direction at the center of the opening is judged in order to control the drive of a transfer motor according to the movement trajectory. The amount of advancement when the unloading is completed is kept constant.

Abstract: A transport unit 41 includes a holding section 41A that holds a disc 11 and a transport section 41B that transports the disc 11. Since the disc 11 is held by the holding section 41A when the disc 11 is transported, the disc 11 is prevented from being disengaged from the transport section 41B, so that a transport distance of the disc 11 can be lengthened.

Abstract: In-vehicle electronic equipment includes an operation display panel, an opening-closing mechanism, a housing unit, a photosensor, and a control device. The opening-closing mechanism selectively moves the operation display panel to an open position and a closed position. The housing unit is configured to house an electronic device together with a connector connected to the electronic device. The photosensor detects whether an electronic device is housed in the housing unit. The control device controls the opening-closing mechanism. When the photosensor detects that no electronic device is housed in the housing unit while the operation display panel is in the open position, the control unit controls the opening-closing mechanism not to bring the display unit to the closed position.

Abstract: A main frame supports a receiving-side connector to which a connecting-side connector is connected in movable manner toward inside. A holding unit holds the receiving-side connector that is moved to the inside. A connector biasing unit applies a biasing force toward outside to the receiving-side connector. A hold releasing unit releases a hold by the holding unit, and moves the receiving-side connector to the outside by the biasing force. A pressing-force applying unit applies, when the receiving-side connector is not moved by the biasing force, a pressing force for ejecting the receiving-side connector to the receiving-side connector.

Abstract: A support (611) that is substantially cylindrical so as to be received by a disk hole (1NA) and has a positioning portion (612) on a circumference adjacent to a first axial end is provided with an engagement/disengagement concave portion (613) of which both ends open to the circumference along a radial direction. A first engaging portion (614) protrudes from around the circumference at which a first axial end of the engagement/disengagement concave portion (613) opens substantially opposes to the positioning portion (612) with a gap equal to or more than a thickness of an optical disk (1N). A moving member (615) is disposed in the engagement/disengagement concave portion (613) in a manner movable along a radial direction of the support (611).

Abstract: A transport unit 41 includes a holding section 41A that holds a disc 11 and a transport section 41B that transports the disc 11. Since the disc 11 is held by the holding section 41A when the disc 11 is transported, the disc 11 is prevented from being disengaged from the transport section 41B, so that a transport distance of the disc 11 can be lengthened.

Abstract: A following control unit 30 is provided. When a connecting-side connector 120 included in a connecting electronic device 100 is connected with a receiving-side connector 20 disposed within a main frame 10 and supported so as to be movable in a connection direction, the control unit 30 controls a movement of the receiving-side connector 20 in a connection direction by applying a pressing force when connecting to the connecting-side connector 120 in the connection direction. The connecting electronic device 100 is a connection-subject. The control unit 30 performs a control by the pressing force when connecting being applied to the connecting-side connector 120 in the connection direction, when the connecting-side connector 120 and the receiving-side connector 20 are being connected.

Abstract: Provided is a disk carrying mechanism, in which a guide member (32) is installed on a disk guide block (41) and the disk guide block (41) with the guide member (32) being disposed on an opposite side of a roller (31) with a carrying route therebetween. The guide member (32) is formed as a ridge extending in a direction orthogonal to a direction of a carrying route and inclined from a center part to a peripheral edge part of a disk so that its height can be increased.

Abstract: A main frame supports a receiving-side connector to which a connecting-side connector is connected in movable manner toward inside. A holding unit holds the receiving-side connector that is moved to the inside. A connector biasing unit applies a biasing force toward outside to the receiving-side connector. A hold releasing unit releases a hold by the holding unit, and moves the receiving-side connector to the outside by the biasing force. A pressing-force applying unit applies, when the receiving-side connector is not moved by the biasing force, a pressing force for ejecting the receiving-side connector to the receiving-side connector.

Abstract: Provided is a disk carrying mechanism, in which a guide member (32) is installed on a disk guide block (41) and the disk guide block (41) with the guide member (32) being disposed on an opposite side of a roller (31) with a carrying route therebetween. The guide member (32) is formed as a ridge extending in a direction orthogonal to a direction of a carrying route and inclined from a center part to a peripheral edge part of a disk so that its height can be increased.

Abstract: A disc transfer section for transferring an optical disc by guide members and a transfer roller is disposed adjacent to an opening of a casing 110. A detector 500 for detecting the optical disc is disposed adjacent to the opening. When unloading the optical disc, the peripheral edge of the optical disc contacts with slide members so that the slide members are slid, thereby sensor switches SW1 to SW4 are appropriately switched on and off. Based on a time difference between the timings of the on/off switchings, the relation between a movement trajectory of the center of the optical disc and an axis of symmetry that is a straight line indicating a transfer direction at the center of the opening is judged in order to control the drive of a transfer motor according to the movement trajectory. The amount of advancement when the unloading is completed is kept constant.

Abstract: A stepping motor driving system includes: a stepping motor that rotates at a predetermined angle according to a driving pulse signal, a vibration detector that detects vibration to output a vibration signal, and a stepping motor control unit that controls the driving pulse signal, which is applied to the stepping motor, to rotate the stepping motor at the predetermined angle. The driving pulse signal includes a start-up current which is required for rotating the stepping motor at a unit angle and a holding current which maintains a rotational angle of the stepping motor rotated by the start-up current. The stepping motor control unit changes the level of the holding current according to the vibration signal which is outputted from the vibration detector.

Abstract: It is an object of the present invention to provide an improved disc changer adapted to exactly detect whether a magazine storing a plurality of discs has been attached in the disc changer. When a magazine storing a plurality of discs is inserted into the disc changer, a detection arm and a lock arm both serving as moving members are moved by such an insertion. The lock arm, by virtue of the movement of itself, engages into an insertion groove provided on the backside of the inserted magazine and locks the magazine on the disc changer. The detection arm, by virtue of the movement of itself, actuates a lock detection switch. Here, since the detection arm and the lock arm are both urged by an urging spring, it becomes possible to exactly detect the attachment of the magazine by allowing the moving members locking the magazine on the disc changer to actuate the lock detection switch.

Abstract: An urging structure for an output shaft of a drive motor of the invention is configured by a pressing plate 31 which abuts against an end face 24a of an output shaft 24, and an urging spring 36 which urges the pressing plate in the axial direction of the output shaft 24. In the pressing plate 31, a fixing portion 32 in one end is fixed onto a chassis 21 in the vicinity of the output shaft 24, and an abutting portion 34 is disposed on the tip end of a flexible arm portion 33. A spring holding portion 35 with which an end portion of the urging spring 36 that is fixed to a spring boss 37 is to be engaged is disposed on the rear face of the abutting portion 34.

Abstract: An optical pickup 200 is arranged between optical discs 10A and 10B rotatably supported with the recording surfaces 10Aa and 10Ba facing each other, the optical pickup being movable along the recording surfaces 10Aa and 10Ba. A laser beam of two wavelengths emitted from a semiconductor laser 201 is respectively reflected in opposite directions by a polarized beam splitter. The reflected laser beams are respectively condensed on the recording surfaces 10Aa and 10Ba via objective lenses, and the laser beam traveling back along the same optical axis is received and processed. No moving member is required, which enables downsizing.

Abstract: A motor includes: a stator provided with a plurality of coils, a rotor provided rotatably with respect to the stator, a first magnet which is mounted on the rotor and which faces one end of each of the plurality of coils, and a second magnet which is mounted on the rotor and which faces the other end of each of the plurality of coils.

Abstract: A record medium reproduction unit has a main casing, a transfer device, a pair of sensing pins, a sensing device, and a decision device. The transfer device transfers a larger disk record medium and a smaller disk record medium into and out of the main casing. The sensing pins are movable toward and away from each other and each contact an outer edge of the larger disk record medium when the larger disk record medium enters the main casing. The decision device determines which is inserted into the main casing, the larger disk record medium, the smaller disk record medium, or a special form record medium such as a card-shaped CD based on information supplied from the pair of sensing pins.