Abstract:
THE PRESENT INVENTION RELATES TO A DISC DRIVE APPARATUS CAPABLE OF PREVENTING SKEW OR WOBBLE FROM OCCURRING WHEN A SPINDLE MOTOR IS ATTACHED TO A BASE. THE DISC DRIVE APPARATUS ACCORDING TO THE PRESENT INVENTION COMPRISES: A TURNTABLE (22) WHICH HOLDS AN OPTICAL DISC (2); A SPINDLE MOTOR WHICH ROTATIVELY DRIVES THE TURNTABLE (22); AN OPTICAL PICK-UP (20) WHICH WRITES/READS SIGNALS ON OR FROM THE OPTICAL DISC (2); GUIDE SHAFTS (42A AND 42B) WHICH SLIDABLY SUPPORTS THE OPTICAL PICK-UP (20) IN THE RADIAL DIRECTION OF THE OPTICAL DISC (2), AND A BASE (15) TO WHICH A SPINDLE MOTOR (23) AND BOTH END PORTIONS OF EACH OF THE GUIDE SHAFTS (42A AND 42B), WHEREIN THE SPINDLE MOTOR (23) IS ATTACHED TO THE BASE (15) THROUGH A SPACER MEMBER (28) WHICH PERFORMS POSITIONING OF THE TURNTABLE (22) IN THE VERTICAL DIRECTION THEREOF RELATIVE TO THE BASE (15).FIG. 7
Abstract:
A disk loading mechanism includes disk cartridge positioning pins 77, 78 integrally formed in the base of a chassis portion thereof. At one side of the base 64 of the chassis 60, a hooked portion is provided for securing a printed circuit board to a lower side of the chassis. The base plate 64 of the chassis 60 mounts a damper 45 for smoothly controlling slider movement in a recess such that an overall height of the unit is reduced. According to such a construction, reliable operation is assured with a reduced number of parts, such that manufacturing complexity and costs can be significantly reduced.
Abstract:
An active matrix liquid crystal display device of a line-inversion drive type. In a wide mode where a black color is displayed in top and bottom specific areas (black frame portions) each composed of, e. g., two lines in a pixel part (11), the odd gate lines (24-1, 24-y-1) and the even gate lines (24-2, 24-y) in the black frame portion are driven with drive pulses (1) and (2) of another system, which are generated by a drive pulse generating circuit (135), a block level signal having a polarity inverted every H period (one horizontal period) is sequentially fed to signal lines (25-1 to 25-x) through horizontal switches (122-1 to 122-x), and the black frame portion is also subjected a line inversion drive.
Abstract:
The hard disk apparatus has first and second skew adjust members (21 and 22) for adjusting inclinations or an inclination of a main guide shaft (16) and/or a sub guide shaft (17). The first and second skew adjust members comprise: bearing parts or a bearing part provided such that the centers or center of shaft holes (43) or a shaft hole (43) in which ends or an end of a main guide shaft (16) and/or a sub guide shaft (17) is inserted and supported is deviated from the centers or center of end surfaces or an end surface of the main guide shaft (16) and/or a sub guide shaft (17), the end surfaces or end surface being substantially perpendicular to the axial directions or axial direction of the main guide shaft (16) and/or the sub guide shaft (17); and first, second, and third contact surfaces which are brought into contact with a support base, the first, second, and third contact surfaces forming a substantially rectangular outer circumference.
Abstract:
THERE IS PROVIDED A DISK DRIVE IN WHICH A BASE LIFTING MECHANISM (93) MAKES A FIRST DISK CHUCKING OPERATION TO PLACE AN OPTICAL DISK (2) ON A DISK MOUNT (27) BY ELEVATING AT LEAST A BASE (31) TO A DISK CHUCKING POSITION, LOWERS THE BASE (31) TO AN INTERMEDIATE POSITION BETWEEN THE DISK CHUCKING POSITION AND A DISK RELEASING POSITION SO THAT A DISK ROTATION DRIVING MECHANISM (28) SPINS THE OPTICAL DISK (2) WHICH WILL THUS TAKE ANOTHER PHASE, ELEVATES THE BASE (31) TO THE DISK CHUCKING POSITION AGAIN, AND MAKES A SECOND DISK CHUCKING OPERATION TO PLACE THE OPTICAL DISK (2) ON THE DISK MOUNT (27). THUS, THE OPTICAL DISK CAN POSITIVELY BE CHUCKED ONTO THE DISK MOUNT.
Abstract:
THE HARD DISK APPARATUS HAS FIRST AND SECOND SKEW ADJUST MEMBERS (21 AND 22) FOR ADJUSTING INCLINATIONS OR AN INCLINATION OF A MAIN GUIDE SHAFT (16) AND/OR A SUB GUIDE SHAFT (17).THE FIRST AND SECOND SKEW ADJUST MEMBERS COMPRISE. BEARING PARTS (41) OR A BEARING PART (41) PROVIDED SUCH THAT THE CENTERS OR CENTER OF SHAFT HOLES (43) OR A SHAFT HOLE (43) IN WHICH ENDS OR AN ENDS OR AN END OF A MAIN GUIDE SHAFT (16) AND/OR A SUB GUIDE SHAFT (17) IS INSERTED AND SUPPORTED IS DEVIATED FROM THE CENTERS OF END SURFACES OR AN END SURFACE OF THE MAIN GUIDE SHAFT (16) AND/OR A SUB GUIDE SHAFT (17), THE END SURFACES OR END SURFACE BEING SUBSTANTIALLY PERPENDICULAR TO THE AXIAL DIRECTIONS OR AXIAL DIRECTIONS OR AXIAL DIRECTION OF THE MAIN GUIDE SHAFT (16) AND/OR THE SUB GUIDE SHAFT (17); AND FIRST, SECOND, AND THIRD CONTACT SURFACES (A,B, AND C), WHICH ARE BROUGHT INTO CONTACT WITH A SUPPORT BASE (8), THE FIRST, SECOND, AND THIRD CONTACT SURFACES FORMING A SUBSTANTIALLY RECTANGULAR OUTER CIRCUMFERENCE.(FIG 1 )
Abstract:
A disk loading mechanism includes disk cartridge positioning pins integrally formed in the base of a chassis portion thereof. In addition, at one side of the base of the chassis, a hooked portion is provided for securing a printed ciruit board to a lower side of the chassis. In addition, the base plate of the chassis mounts a damper fox smoothly controlling slider movement in a recess such that an overall height of the unit is reduced. According to such construction, reliable operation is assured with a reduced number of parts, such that manufacturing complexity and costs can be significantly reduced.
Abstract:
A disk loading mechanism includes disk cartridge positioning pins integrally formed in the base of a chassis portion thereof. In addition, at one side of the base of the chassis, a hooked portion is provided for securing a printed ciruit board to a lower side of the chassis. In addition, the base plate of the chassis mounts a damper fox smoothly controlling slider movement in a recess such that an overall height of the unit is reduced. According to such construction, reliable operation is assured with a reduced number of parts, such that manufacturing complexity and costs can be significantly reduced.
Abstract:
PROBLEM TO BE SOLVED: To provide a disk chucking mechanism capable of easily removing an optical disk with a simple configuration, a disk drive device and a holding mechanism.SOLUTION: A disk chucking mechanism relating to one embodiment of the present technology includes a turntable and a release member. The turntable has a mounting part having a center hole to mount a disk thereon, a fitting part formed in the mounting part to be fittable to the center hole, a holding part provided in the fitting part to hold the disk fitted to the fitting part on the mounting part, and a driving source having a rotating shaft fixed to the mounting part. The release member has an operation part projecting to the outside of the fitting part to be movable toward the fitting part, a movable part arranged between the mounting part and the holding part to be able to press the disk mounted on the mounting part in the direction of separating from the mounting part, and a support part for connecting the operation part and the movable part and supported by the turntable to be capable of converting the movement of the operation part into movement of the movable part in the direction.
Abstract:
PROBLEM TO BE SOLVED: To enable making a whole device thinner even when an insertion guide member guiding regulating an insertion angle of an optical disk inserted from a disk insertion and ejection opening is provided. SOLUTION: This unit has an insertion guide member 113 guiding regulating an insertion angle of an optical disk 2 inserted from a disk insertion and ejection opening 21, when the base 31 is at a chucking releasing position, the insertion guide member 113 is elevated to a position at which an insertion angle of the optical disk 2 inserted from the disk insertion and ejection opening 21 is regulated, when the base 31 is at a chucking position, the insertion guide member 113 is dropped to a position at which it is separated from the optical disk 2 loaded to the disk loading part 27. COPYRIGHT: (C)2005,JPO&NCIPI