Abstract: The effect of detection errors when detecting if a disc recording medium is in a disc drive is eliminated. A control unit 17 detects if an optical disc 11 was supplied to an optical disc drive 13 based on the operation of the transportation unit 16, causes the optical disc drive 13 to detect if an optical disc 11 is inside the disc drive, and compares the results of these detection operations. If the results do not match, the control unit 17 causes the optical disc drive 13 to repeat the operation discharging and loading the optical disc 11, and causes the optical disc drive 13 to again detect if an optical disc 11 is present after the discharge and loading operation. The control unit 17 then determines if the new detection result from the optical disc drive 13 and the detection result related to supplying the optical disc 11 to the optical disc drive 13 match, and based on the result of this evaluation detects an optical disc drive 13 operating error.

Abstract: An optical disc drive includes a housing with a protrusion and a tray capable of sliding in and out of the housing. The tray includes a first surface, and a second surface opposite to the first surface. The first surface is partially recessed to form a receiving space for accommodating an optical disc. The second surface defines a channel, and forms a blocking portion at one end of the channel. The protrusion slides in the channel to guide the tray to slide in and out of the housing, and cooperates with the channel to prevent the tray from vibrating. When the tray is fully extended from the housing, the protrusion is located at the end of the channel forming the blocking portion, thus the protrusion is blocked by the blocking portion from sliding too far so that the tray is prevented from sliding off the housing.

Abstract: An ejecting mechanism suitable for being disposed in a housing of an electronic device is provided. The ejecting mechanism includes a guiding plate, a pair of stopping elements, and a moving element. The guiding plate is disposed on the housing. The stopping elements are disposed on the guiding plate, and the stopping elements are adapted to move away from each other or close to each other in a first direction. The moving element is disposed at the housing and movable in a second direction. The moving element has two pushing portions disposed on a second surface of the moving element that faces the stopping elements.

Abstract: A disc loading mechanism transporting a disc between a disc cartridge and a recording and reproducing apparatus includes: a loading arm having at a leading end thereof claw members which comes into contact with an outer circumference of the disc and performs drawing of the disc into the recording and reproducing apparatus and insertion of the disc into the disc cartridge; an arm driving mechanism which slides the loading arm in a disc transport direction; a disc extruding lever which extrudes the disc up to a contact position with the claw members when discharging the disc; and a lever driving mechanism which drives the extrusion lever, wherein each of the claw members includes a draw-in surface portion and an insertion surface portion provided at the opposite side to the draw-in surface portion.

Abstract: In an optical disc device, the device effectively reduces noise generated during the time of optical disc revolution and at the same time prevents a tray and an optical disc placed on the tray from coming into contact with each other or a circuit board mounted on the tray from undergoing electrostatic destruction. A circuit board for controlling a spindle motor and a pickup is mounted on a tray for placing an optical disc on the reverse side of the rear area. There are formed through-holes crookedly piercing through the tray in the thickness direction in the rear area of the tray. The through-holes are so constructed that their openings on tray's reverse side are invisible from their openings on tray's face side.

Abstract: An optical disc apparatus, comprising a tray 2, attached to be insertable within housings 9 and 10, and within the housings are included a disc motor 3, an optical pickup 4 and a moving mechanism thereof, and also a unit mechanism chassis 5 for moving the optical pickup thereon and a controller substrate 71 disposed below the unit mechanism chassis for controlling the optical pickup, and further, a wide-width flexible cable 8 for electrical connection between the controller substrate and the optical pickup, wherein the optical pickup mounts laser units 41, 42 and 43 including three (3) pieces of elements, each emitting a laser light different in the wavelength thereof, a penetrating portion 2b and a wall portion 2e are provided in a part of left bottom surface of the tray, while forming a cutoff portion 55 in a part of the chassis, thereby guiding the airflow generated accompanying with rotation of the optical disc onto the optical pickup, with certainty.

Abstract: A reproduction device of a recording medium and a method for operating the same are disclosed. The reproduction device of a recording medium comprises a recording medium loading unit loading the recording medium, and inputting and/or outputting data of the recording medium; a main board provided with a central processing unit implementing reproduction of the recording medium in accordance with an input signal or a previously set program; and a key operation unit directly connected with a loader of the recording medium loading unit. Accordingly, the sub application processing open and/or close of the recording medium loading unit is actuated after a power supply of the reproduction device is turned, whereby the time required to detach or insert the recording medium from or to the reproduction device can be reduced.

Abstract: A optical disc drive is disclosed. The optical disc drive includes a housing and a tray configured to accommodate a disc therein. The optical disc drive also includes an automatic return-type eject switch, a drive controller, and an eject controller. Mounted in the housing, the automatic return-type eject switch is configured to generate an eject signal. In response to the eject signal, the drive controller ejects the tray. In response to the eject signal, the eject controller supplies an electric power to the optical disc drive, and transmits a pseudo eject signal to the drive controller to eject the tray by way of a line through which the eject signal has been transferred after a predetermined time period from the supply of the electric power has lapsed.

Abstract: A tray control method for a disk drive including a tray for carrying a disk, a detect switch movable to different inclined positions for detecting different positions of the tray during tray retraction operation, a firmware for receiving signals transmitted by the detect switch upon reaching the different inclined positions. The firmware determines whether the disk is present on the tray when a traverse module is raised from a lower position to an upper position.

Abstract: An optical disk drive includes a main body and a tray. The main body includes a housing, a first resisting member, and two rails. The first resisting member and the two rails are disposed in the housing. The tray is slidably coupled to the two rails, and is operable to be switched between a first state and a second state. The tray is received in the housing in the first state, and protrudes out of the housing in the second state. The tray includes a second resisting member, which is capable of being elastically compressed along a resisting direction substantially perpendicular to a sliding direction of the tray. The second resisting member is resisted by the first resisting member along the resisting direction to secure the tray in the first state. The second resisting member is away from the first resisting member in the second state.

Abstract: An optical disc apparatus, presenting recording quality without degradation by an extreme temperature rise in an objective-lens drive mechanism in an optical pickup, includes a mechanical chassis on which a disc rotation mechanism, an optical pickup, and a transfer mechanism are mounted, a decorative plate that is a plate-shaped member located between the disc and the optical pickup and fixed on the mechanical chassis, a disc tray for loading and removing the disc, a circuit board for operation control, and an apparatus housing containing the components. A recess is formed in an indented shape in a portion of the mechanical chassis facing an outer peripheral region of the disc recording surface. An incline is formed in a position close to an opening of the disc tray for mounting the mechanical chassis and opposite the outer peripheral region of the disc recording surface, and slopes gently down to the recess.

Abstract: The present invention relates to a tray used in an optical disc drive. At least two aligning means arranged in the tray for marking an aligning line at a front side and a back side of the tray, respectively. The aligning line is used for determining the dimensional accuracy of each component located on the front side and back side of the tray, respectively.

Abstract: An optical disk drive includes a main body and a tray. The main body includes a housing and two rails disposed in the housing. The tray is slidably coupled to the two rails, and is operable to be switched between a first state and a second state. The tray is received in the housing in the first state, and protrudes out of the housing in the second state. The main body further includes a first resisting member. The tray includes a second resisting member. The first resisting member is adapted to apply a resisting force to the second resisting member in the first state to secure the tray. The first resisting member is away from the second resisting member in the second state.

Abstract: The tray of the disc device includes the ground member including the base cover that substantially covers the electronic component and the ground extension portion, and the front projection located forward in the tray-out direction relative to the ground extension portion. The casing includes the casing-side ground contacting portion that contacts the ground extension portion in a tray-in state. In the tray-in state, the ground extension portion and the casing-side ground contacting portion are contacted so that static electricity is flowed to the casing via the ground member, thereby preventing the static electricity from flowing and damaging the electronic component. Even when the ground extension portion is deformed in the tray-out direction, the contact between the ground extension portion and the front projection prevents excessive deformation of the ground extension portion. Thus, the disc device can be easily handled without fearing damage to the ground extension portion.

Abstract: A position detecting device of an optical drive utilizes a simple wire to connect a CPU of the optical drive to a latch part and a fixing part, such that the latch part, the CPU and the fixing part, which are original parts of the optical drive, form a detecting circuit. When the latch part clasps or releases a tray, the latch part latches or releases the fixing part to close or open the detecting circuit so that the CPU can correctly judge whether the tray enters for positioning, and thus start or shut down the optical drive. In addition, the members such as a flexible cable, a casing and a mainboard may replace parts of the wire to simplify the detecting circuit.

Abstract: A tray control method for a disk drive including a tray for carrying a disk, a detect switch movable to different inclined positions for detecting different positions of the tray during tray ejection and retraction operation, a firmware for receiving signals transmitted by the detect switch upon reaching the different inclined positions so as to adjust a voltage applied to a DC motor and the speed for moving the tray to the different positions such that the tray moves stably when retracting into and ejecting from the disk drive.

Abstract: An information handling system (IHS) includes an IHS chassis defining a drive bay. A processor is located in the IHS chassis. A drive chassis is located in the drive bay. A bezel extends from an edge of the drive chassis. A first connector coupling is located on the bezel. An IHS connector is located on the drive chassis and electrically coupled to the processor and the connector coupling such that a device may be coupled to the IHS through a cable connected to the first connector coupling.

Abstract: An automatic disk reproducing apparatus includes a chassis body, a duplicating device, a disk feeding device, a disk conveying device and a disk holder. The duplicating device is mounted in the chassis body and has a tray. The disk feeding device is mounted on the chassis body to hold a stack of compact disks in position and allows gravity to pull the compact disk at the bottom of the stack of compact disks into the tray for duplication. The disk conveying device includes two conveying members and two arms connected respectively to the conveying members to elevate the recorded compact disk from the tray after the duplication of the compact disk and convey the recorded compact disk to the disk holder.

Abstract: A burner system capable of inverting an optical disc has a control module, a burning module, a mechanical arm and an inverter. The control module controls the mechanical arm to grab the optical disc from a burner in the burning module and release the optical disc into the inverter. The optical disc passes through the inverter due to gravity, one side of the optical disc is tilted by the inverter so the optical disc is inverted. Therefore, the burner system automatically inverts the optical disc for double-sided data processing.

Abstract: The present invention relates to design and construction of a mini and compact optical disc autoloader. By way of a flip-flop device positioned and pivoted between two disc trays, the robotic arm movement is simplified to a one-dimensional linear fashion and greatly reduces the cost of production and also cost of maintenance. The present invention also allows for multiple write drives to be easily built into present invention, creating an efficient duplicating system. It can be used for the home and small business environment for small volume optical duplication, storage and management.

Abstract: The invention is to provide a slim optical disk drive, which includes several braces extended from two edges of an upper cover. Each brace extends two fixing parts with a buckle hole from the center and the bottom. The upper and lower surface of each guide of a guide unit is concaved to form position recesses with a wedge. The guide places between two fixing parts, the fixing part and engages in the position recess, and the wedge is inserted into the buckle hole. A tray covered a base plate on bottom is supported by two bars sliding in two guides.

Abstract: A slot-in optical disk drive includes a power unit to drive a sliding component to rotate a loading bar, so as to process loading procedure of the slot-in optical disk drive. A base covers on a main board disposed on a rear side of a casing of the slot-in optical disk drive. A first linking bar is pivoted to a center of the base. An end of the first linking bar is driven by the sliding component, and a haul slot is for driving a right positioning bar. The other end of the first linking bar is pivoted to a second linking bar of the base. The second linking bar is for driving the unloading bar pivoted to the base. The end of the unloading bar is close to a lateral side of the casing, so as to keep away from a breach on the base.

Abstract: A tray control method for a disk drive including a tray for carrying a disk, a detect switch movable to different inclined positions for detecting different positions of the tray during tray ejection and retraction operation, a firmware for receiving signals transmitted by the detect switch upon reaching the different inclined positions so as to adjust a voltage applied to a DC motor and the speed for moving the tray to the different positions such that the tray moves stably when retracting into and ejecting from the disk drive.

Abstract: An adjustment holding portion (21) for adjusting the inclination of a guide shaft (22) guiding an optical pickup (2) in a radial direction with respect to a base (1) is mounted to the base (22) at a first supporting point (1n), a second supporting point (23) and a third supporting point (24). When the optical pickup (2) is located at a first position on the inner circumference side of the optical disk, the shaft-receiving portion (2c) of the optical pickup (2) is located on a line connecting the first supporting point and the second supporting point. When the optical pickup (2) is located at a second position on the outer circumference side of the optical disk, the shaft-receiving portion (2c) of the optical pickup (2) is located on a line connecting the first supporting point and the third supporting point.

Abstract: An information handling system component contained within an information handling system housing uses the information handling system housing as at least a portion of a safety enclosure for hazardous functions of the component. A lock out device disables the hazardous function if the information handling system housing is moved relative to the component. For example, an optical disc drive laser is disabled if a Hall effect sensor in the chassis of the optical disc drive no longer senses a magnet placed in a portion of the information handling system housing used to enclose the optical disc drive. Alternatively, the component couples to the information handling system housing to enclose the hazardous function within the interior of the information handling system housing so that the component is inaccessible from the exterior of the housing.

Abstract: A recording medium insertion and ejection device which realizes reliable insertion and ejection by simple constitution is provided. The device has a first frame, a second frame, and a latch member provided between the first frame and the second frame. The first frame is inserted in the second frame. Insertion and removal of the medium are performed to the first frame. The latch member guides the first frame to a first position where the recording medium is inserted and removed and a second position where the recording medium is used. If the medium is pushed and inserted in the first frame at the first position, the latch member will guide the first frame to the second position and maintain the first frame at the second position. If the medium is pushed again at this state, the latch member will return the first frame to the first position.

Abstract: An optical disc apparatus comprises the followings within housing thereof: an optical pickup, which is configured to conduct recording or reproducing of a disc, as an information recording medium; a rotation mechanism of said disc; a transfer mechanism, which is configured to move said optical pickup from an inner periphery of said disc up to an outer periphery thereof; a mechanical chassis, which is configured to mount said optical pickup, said disc rotation mechanism and said transfer mechanism thereon; a disc tray, which is configured to conduct storing and taking out of said disc; and a connector, which is configured to electrically connect between a circuit board for conducting driving control of said rotation mechanism and an external electronic apparatus, wherein a projection portion is provided on a reverse surface of said disc tray, at a portion facing to said connector at a position when said disc tray is stored, to be inserted into a gap between periphery of said connector and said housing, and the

Abstract: An electronic apparatus 10, such as a computer, includes a first unit 20 having a keyboard 21 and a second unit 30 coupled to the first unit 20 having a display screen 31 through a two-axis coupling section 40 to be opened, closed, and rotated relative to the first unit 20. The computer may be used either as a notebook PC or a tablet PC, and includes an optical disk drive 26 for accessing an optical disk. The present invention protects the optical disk and the optical disk drive against damage when the computer is used in the tablet PC mode. Depending on the status of the second unit 30 relative to the first unit 20, the apparatus enables or disables use of optical disk drive 26, including the drive ejection button.

Abstract: A door opening and closing mechanism includes an apparatus body, a door configured to open and close a side face of the apparatus body, a closing mechanism configured to move the door from an open position to open the side face to a close position to close the side face, a control switch provided in the apparatus body, the control switch being operated from an operation hole opening in the side face, and a control button provided in the door and configured to press the control switch from the operation hole at the close position of the door. The control switch is provided at a position shifted from the operation hole toward the interior of the apparatus body.

Abstract: An automatic disc eject device for a disc-loading tray of an optical disc drive comprises: a disc-loading frame, a movable disc-loading piece and a pivot. The movable disc-loading piece is connected to the disc-loading frame by a pivot to form a disc-loading tray. When ejecting the disc, the movable disc-loading piece rotates downward about the pivot to allow the optical disc to fall by gravity without having to take the disc out of the disc-loading tray manually. Therefore, the automatic disc eject device can improve the disc-burning efficiency and speed, reduce the labor consumption and improve the productivity.

Abstract: A disc tray is ejectably accommodated in a main chassis, and mounts a disc thereon. A motor rotates in a first direction and a second direction opposite to the first direction. A traverse chassis has a turn table for clamping the disc, and is moved between a first position and a second position. The traverse chassis is moved toward the first position by a rotation of the motor in the first direction and toward the second position by a rotation of the motor in the second direction. A detector detects that the traverse chassis is disposed in a first position. A controller allows the motor to rotate. In a case that the detector does not detect that the traverse chassis is disposed in the first position during the controller allows the motor to rotate in the first direction for a first time period, the controller allows the motor to rotate in the second direction for a second time period, and to rotate in the first direction again after an elapse of the second time period.

Abstract: The present invention provides an optical disc drive and computer. The optical disc drive comprises: a tray for laying a disc therein; a drive means connected to the tray; and a control circuit for connecting the drive means and a power supply of a computer connected to the optical disc drive, wherein the drive means establishes an electrical connection with the power supply via the control circuit. The control circuit comprises: a determination unit for determining whether a optical disc drive power-off condition is valid and acquiring a determination result; and a power supply control unit for transmitting a power-off instruction to a computer host when the determination result indicates that the optical disc drive power-off condition is valid. The power-off instruction is configured for instructing the computer to control the power supply to stop supplying power to the control circuit and the drive means.

Abstract: The present invention relates to a tray used in an optical disc drive. At least two aligning means arranged in the tray for marking an aligning line at a front side and a back side of the tray, respectively. The aligning line is used for determining the dimensional accuracy of each component located on the front side and back side of the tray, respectively.

Abstract: A disc device that performs insertion and ejection of a disc into and from a main unit by using a conveying roller includes a slider member for performing an operation of upwardly and downwardly moving the above-mentioned conveying roller, an operation of upwardly and downwardly moving an arm clamp for pressing the above-mentioned disc onto a turntable to hold the above-mentioned disc, and an operation of locking and unlocking a playback base on which the above-mentioned turntable is disposed. An engagement part for engaging with both an engagement part of the above-mentioned arm clamp and an engagement part of the above-mentioned playback base at a point is disposed in the above-mentioned slider member.

Abstract: A device and a method for automatically turning over a disc relate to a guide rod provided with a movable member. The movable member is assembled to a rotating member via a pivot member in such a manner that the movable member can axially move along and radially rotate around the guide rod. The pivot member is disposed between the movable member and the rotating member and powered to rotate. The rotating member is provided with a disc-carrying device in a direction of its rotation around the pivot member for taking the disc. The pivot member drives the disc to rotate via the rotating member, so as to turn over the disc, so that the rotating member makes the disc slide down into the tray in an inclined manner.

Abstract: The invention provides a method for ejecting an optical disk and a related ejection device for a slot-in disk drive. The ejection device includes a block disposed on a contact end of an unloading bar. The block stretches out of the contact end of the unloading bar along a longitudinal direction of the unloading bar for pushing a small size optical disk so that a distance between a center of the small size optical disk and a contact end of a loading bar exceeds a predetermined distance. When the small size optical disk is unloaded, the unloading bar backs to an initial position, the slot-in disk drive idles to load and unload the small size optical disk continuously for pushing the small size optical disk outwardly further.

Abstract: A method (1000) to automatically detect and rectify a tray block in a disk drive (100) is disclosed. The method comprises detecting an occurrence of a tray block in a disk drive (100) upon receiving a tray-out command or a tray-in command by determining whether the tray (108) is in an intermediate position for a predetermined time period, the intermediate 5 position being a position between a first position within a casing of the disk drive (100) and a second position projecting completely outwards from the casing, the tray arranged to receive a record carrier (110) when in the second position and being supported for movement between the first position and the second position. The detected tray block is rectified by cleaning a brush-commutator interface of a tray motor (102), the tray motor being arranged to 10 move the tray (108) between the first position and the second position. The technique is useful for CD, DVD and BD recorders and for players which have the design of tray open/close mechanism.

Abstract: A disk sorter for DVDs, CDs or other disks includes a sorter frame. Plural sorting trays are contained in the sorter frame in a multi-level arrangement, respectively have a front tray end and a rear tray end, are inclined downwards toward the front tray end, for containing a disk on a side higher than the front tray end upon reception with the rear tray end. A movable chute structure is disposed behind the rear tray end, movable up or down, inclined downwards toward the rear tray end, for supplying one of the sorting trays with the disk by guiding to the rear tray end. A disk transfer device holds the disk, and places the disk on the chute structure, to transfer to the one sorting tray. Furthermore, a lifting device moves up or down the chute structure, and positions the chute end at the rear tray end.

Abstract: Provided is an optical disc drive having a tray to receive a disc. The tray includes a hollow portion having a bottom corresponding to the disc and a wall surrounding a portion of the bottom, and a plurality of supporting portions formed on the bottom of the hollow portion to locally support a bottom surface of the disc.

Abstract: An optical disc drive includes a chassis assembly formed of metal and grounded, a tray supporting an optical disc and installed capable of sliding in and out of the chassis assembly, a cover-deck formed of metal and attached on a lower surface of the tray, an eject switch provided on a front surface of the tray to unlock the tray which is inserted in the chassis assembly and locked therein, an eject button provided in front of the tray to press the eject switch, a bracket formed of metal, provided between the eject switch and the eject button, and having a lead formed at one end portion thereof and contacting the cover-deck, and a static electricity discharge wire electrically connecting the cover-deck and the chassis assembly, wherein static electricity generated when the eject button is pressed sequentially flows through the bracket, the cover-deck, and the chassis assembly, and flows out to ground.

Abstract: A buffer to be used with a disk drive, the buffer including a main body provided to the disk drive; one or more protrusions extending from an inner or outer surface of the main body; and one or more inner spaces corresponding to the respective protrusions; wherein the inner spaces are formed on an apposite surface of the main body to the protrusions.

Abstract: To provide a disk drive capable of being prevented from rattling due to vibrations by a motor or eccentricity of a disk, support arms formed at both sides of a U-shaped traverse holder of a traverse unit have ribs protruding therefrom. Shaft portions protrude outward from front ends of the arms while bearing portions are provided on sidewalls of a chassis. The bearing portion has an axial hole formed in the side wall and a flexibly deformable, resilient arm extending forward spaced from the sidewall by a given distance, the axial hole having a front portion and a rear portion, the front portion being smaller in height than the rear portion, and the height of the front portion of the axial hole being slightly larger than outside diameter of the shaft portions. The shaft portions are fitted in the axial holes. The ribs are squeezed within the resilient arms.

Abstract: An ejection device of a slot-in optical disc drive includes a rotating plate and an elastic unit. The rotating plate is installed on the slot-in optical disc drive and attached to an actuating gear of a feeding gear unit. The actuating gear is capable of following the rotation of the rotating plate to disengage from the feeding gear unit of the slot-in optical disc drive. The elastic unit is attached to the rotating plate to keep the actuating gear engaged with the feeding gear unit. A push wall of the rotating plate and a push block of a sliding piece, connected with the output of the feeding gear unit, are located sequentially on the path of a hole penetrating into the optical disk drive. A stick can be inserted into the hole to activate the ejection device.

Abstract: A slim optical disc drive including a deck having a protrusion on which a spindle motor that rotates an optical disc and an optical pickup sliding along a radial direction of the optical disc drive are mounted, a lower case installed so that the deck slides into and out of the lower case and having a penetration corresponding to the protrusion, and a cover that covers the penetration.

Abstract: The present invention relates to a drive device for driving optical pick-up unit, which comprises an optical pick-up unit (OPU) for reading the information recorded on a disk; a pick-shaft for guiding the OPU's moving direction; two guiding elements which are provided on the pick-shaft and connected with the OPU for moving the OPU on the pick-shaft along its direction; a gear rack for driving the OPU moving forward and back; and a gear wheel for driving the gear rack; the drive device is characterized that the gear wheel engages with the gear rack always outside the area between the two guiding elements during the movement of the OPU.

Abstract: An optical disc drive may include a tray movable for the sake of mounting and dismounting a disc, a disc rotation mechanism arranged at the center to rotate the disc, and a pickup arranged on a backside of the center to write and read the disc within a housing. The optical disc drive may be arranged with a first opening for inhaling outside air in a height range between the bottom surface of the tray and the proximity to the bottom end of the pickup on a back surface or a side surface around a corner on a right side viewed from the backside of the housing, and a second opening for exhausting internal air, arranged higher than a top surface of the tray on the back surface or a side surface around a corner on a left side viewed from the backside.

Abstract: The present invention provides a lift device of a slot-in disk drive, which includes two straight slots formed on a side of a sliding component, two sliding pins protruding from a side of base adjacent to the sliding component or protruding from a fixing plate of a casing, a cover covering with the sliding component, two guiding pins protruding from an inner surface of the cover corresponding to the two straight slots for inserting into the two straight slots respectively, an one-humped traverse slot with two ends of different heights formed on a lateral side of the cover adjacent to the sliding bolt whereinto the sliding bolt inserts, and two lifting slots separately formed on the other lateral side of the cover whereinto the two sliding pins insert.

Abstract: The invention provides a traverse with a splash-proof device which disposes a spindle on one end of a body and is covered by a protection plate. A feeding device utilizes a feeding motor to rotate a screw bar, and two guiding bars, paralleling the screw bar are individually disposed on the two sides of the body. A pick-up head is disposed across two guiding bars and one side is driven h)y the screw bar to slide along the two guiding bars. The splash-proof device utilizes stick slices between the guiding bars and the protection plate to prevent lubricant from splashing.

Abstract: According to one embodiment, a control method of an information processing device, includes measuring a movement amount of a body with a sensor, invalidating an operation of a switch which ejects an optical disc held in an optical disc drive, in a case where the movement amount of the body is a threshold value V1 or more, and validating the operation of the switch in accordance with a measured value of the sensor, after invalidating the operation of the switch.

Abstract: A tray includes a substrate and a resin portion placed thereon by printing. The resin portion includes a first part placed along an edge on the disc loading side of the substrate, a second part placed along another edge on the disc unloading side of the substrate, and a third part placed between the first and second parts.