Abstract: A method for producing a stretch laminate includes forming an intermediate stretch laminate. Forming the intermediate stretch laminate includes providing a first substrate and attaching an elastic film to a surface of the first substrate via an adhesive. The first substrate and the elastic film are in a face to face orientation. The intermediate stretch laminate has a residual energy of greater than or equal to 50% at a predetermined applied strain. The method of forming the stretch laminate further includes mechanically activating the intermediate stretch laminate at a strain rate of at least 100 s?1.

Abstract: An endplay structure is provided for controlling endplay of a shaft 25 of a motor 19. The endplay structure includes a body 22 including a generally elliptically shaped recess 26 therein. The recess is constructed and arranged to be disposed generally adjacent to an end of the shaft. An engagement member 28 has a generally spherical portion constructed and arranged to be received in a press-fit arrangement with the recess. The engagement member has a surface 32 constructed and arranged to contact the end of the shaft. Whereby, when the surface of the engagement member is contacted by the end of the shaft, the spherical portion of the engagement member is press-fitted into the recess to control endplay of the shaft.

Abstract: A motor assembly 30 includes an electric motor 32 having a rotatable shaft 40, the shaft 40 having a worm 38; and a gear unit 33 operatively associated with the motor, the gear unit has first and second opposing ends. The gear unit 33 includes a gearwheel 36 operatively coupled with the worm 38 of the shaft 40 such that rotation of the shaft rotates the gearwheel. A driver 42 is operatively coupled with gearwheel so as to rotate therewith. The driver 42 is constructed and arranged to provide a driving member 43, 44 accessible at each of the first and second ends of the gear unit.

Abstract: A coverplate 10 and gearhousing 22 are provided for an electric motor 23. The coverplate 10 includes loop structure 14 and the gearhousing includes guides 28 such that the loop structure engages with the guides in a snap-fit arrangement to secure the coverplate with respect to the gearhousing. The coverplate 10 includes locators 16 extending therefrom and the gearhousing 22 includes grooves 24 such that the locators 16 are received in the grooves 24 when the loop structure and guides are in the snap-fit arrangement so as to prevent rotation of the coverplate with respect to the gearhousing about an axis.

Abstract: A method for inducing strain on a workpiece includes the step of providing a testing apparatus having a first set of teeth and a second set of teeth. The workpiece is placed adjacent to the first or second set of teeth. The second set of teeth is disposed on a movable carriage which linearly reciprocates thereby allowing the first and the second sets of teeth to engage and disengage each other. A commanded position by time is provided to the carriage while the actual position by time of the carriage is measured. The first set of teeth are in communication with at least one load cell such that when the first set of teeth engage the second set of teeth, the load applied by the carriage is measured. The actual position by time data and the load data are manipulated to produce vast information pertaining to the workpiece.

Abstract: A bushing structure 10 is constructed and arranged to be operatively associated with a shaft 24 of an electric motor 22. The motor has a housing 30 including a generally elliptical recess 32 therein defined along an axis C of the shaft. The bushing structure includes a generally cylindrical bushing member 12 constructed and arranged to engage an end of the shaft so as to locate the shaft with respect to the housing and to prevent lockup of the motor. An endplay member 20 is associated with the bushing member and with the end of the shaft. The endplay member includes a spherical portion constructed and arranged to be received in the elliptical recess so as to control endplay of the shaft.

Abstract: A coverplate 10 and gearhousing 22 are provided for an electric motor 23. The coverplate 10 includes loop structure 14 and the gearhousing includes guides 28 such that the loop structure engages with the guides in a snap-fit arrangement to secure the coverplate with respect to the gearhousing. The coverplate 10 includes locators 16 extending therefrom and the gearhousing 22 includes grooves 24 such that the locators 16 are received in the grooves 24 when the loop structure and guides are in the snap-fit arrangement so as to prevent rotation of the coverplate with respect to the gearhousing about an axis.

Abstract: A bushing structure 10 is constructed and arranged to be operatively associated with a shaft 24 of an electric motor 22. The motor has a housing 30 including a generally elliptical recess 32 therein defined along an axis C of the shaft. The bushing structure includes a generally cylindrical bushing member 12 constructed and arranged to engage an end of the shaft so as to locate the shaft with respect to the housing and to prevent lockup of the motor. An endplay member 20 is associated with the bushing member and with the end of the shaft. The endplay member includes a spherical portion constructed and arranged to be received in the elliptical recess so as to control endplay of the shaft.

Abstract: A suction canister including a rigid walled fluid container having an interior, a cover secured to the container, the cover having therein a port, a first port wall extending into the interior, and a second port wall extending in a direction opposite the interior, and a conduit coupled to the first port wall and extending into the interior.

Abstract: An endplay structure is provided for controlling endplay of a shaft 25 of a motor 19. The endplay structure includes a body 22 including a generally elliptically shaped recess 26 therein. The recess is constructed and arranged to be disposed generally adjacent to an end of the shaft. An engagement member 28 has a generally spherical portion constructed and arranged to be received in a press-fit arrangement with the recess. The engagement member has a surface 32 constructed and arranged to contact the end of the shaft. Whereby, when the surface of the engagement member is contacted by the end of the shaft, the spherical portion of the engagement member is press-fitted into the recess to control endplay of the shaft.

Abstract: To determine adjusting force comparison values for limiting the actuating force of a power-activated adjusting device by means of control technology, an initialization routine is predefined in a control unit, which allows the adjusting device to run through a specific number of complete adjusting cycles, before the recorded actuating force values are stored in the control unit as adjusting force comparison values.

Abstract: A motor assembly 30 includes an electric motor 32 having a rotatable shaft 40, the shaft 40 having a worm 38; and a gear unit 33 operatively associated with the motor, the a gear unit has first and second opposing ends. The gear unit 33 includes a gearwheel 36 operatively coupled with the worm 38 of the shaft 40 such that rotation of the shaft rotates the gearwheel. A driver 42 is operatively coupled with gearwheel so as to rotate therewith. The driver 42 is constructed and arranged to provide a driving member 43, 44 accessible at each of the first and second ends of the gear unit.

Abstract: A phase modulated servo method and apparatus are provided for use in a disk file. The disk file includes at least one disk mounted for rotation about an axis and the disk has at least one disk surface for storing data. At a predefined location of the disk surface a series of servo tracks of a predetermined high gain servo pattern are written. The predetermined high gain servo pattern includes 360° phase difference information within each data cylinder. The servo tracks are detected for identifying servo phase information.

Abstract: In a ultra high density, multiple-disk drive, track switches within a cylinder of tracks as well as track switches to tracks on other cylinders both require a movement of the head stack actuator. Track switching latency in such a disk drive is reduced by overlapping pre-movement portions of the track switching process with the data transfer operation of the currently active recording head. In addition, post-movement portions of the track switching process are overlapped with the movement of the heads so that the next selected read/write head may begin a data transfer operation immediately upon arrival at the next track. Further, the pre-movement and post-movement portions of the track-switch process may be overlapped with low displacement movement of the read/write heads relative to the currently active track or the next track.

Abstract: A method and an apparatus for optimizing movement of a disk drive's head actuator arm away from a magnetic latch that holds the arm in a parked position at the Inner Diameter (ID) of a disk. Current energizing of the arm's actuator motor moves the arm away from the magnetic latch and is controlled to compensate for any change in magnetic holding force. When the disk drive is powered up, a current pulse of one polarity is applied to the actuator motor. This initial current pulse normally moves the arm away from the magnetic latch and is followed by a current pulse of the opposite polarity to decelerate movement of the arm. If this initial sequence fails to move the arm away from the magnetic latch, the magnitude of the two current pulses is increased, and the opposite polarity pulse is followed by a small magnitude current of the one polarity. The read signal from the head is monitored to indicate that the arm has moved into the disk's central databand area, and then into the disk's Outer Diameter (OD) area.