Abstract: A method and apparatus for processing mail is provided. Mail is placed into an input bin having a conveyor that conveys the mail towards a feeder. The feeder serially feeds the envelopes by engaging the lead envelope in the stack of mail and displacing the lead envelope transverse the stack of mail. The mail is fed into a shuttle that vertically displaces the envelopes to position the envelopes for entering a justifier. The justifier justifies the top edge of the envelopes and conveys the envelopes to a cutter that severs the top edge of the envelopes. A transport conveys the envelopes from the top cutter to an extractor. The extractor opens the edge-severed mail and presents the contents of the envelopes to an operator who manually extracts the contents. The transport conveys the empty envelopes from the extractor to a verifier that verifies that all of the contents have been removed from the envelope before the envelope is discarded.

Abstract: A method and apparatus for processing mail is provided. Mail is placed into an input bin having a conveyor that conveys the mail towards a feeder. The feeder serially feeds the envelopes by engaging the lead envelope in the stack of mail and displacing the lead envelope transverse the stack of mail. The mail is fed into a shuttle that vertically displaces the envelopes to position the envelopes for entering a justifier. The justifier justifies the top edge of the envelopes and conveys the envelopes to a cutter that severs the top edge of the envelopes. A transport conveys the envelopes from the top cutter to an extractor. The extractor opens the edge-severed mail and presents the contents of the envelopes to an operator who manually extracts the contents. The transport conveys the empty envelopes from the extractor to a verifier that verifies that all of the contents have been removed from the envelope before the envelope is discarded.

Abstract: A method and apparatus for processing mail is provided. Mail is placed into an input bin having a conveyor that conveys the mail towards a feeder. The feeder serially feeds the envelopes by engaging the lead envelope in the stack of mail and displacing the lead envelope transverse the stack of mail. The mail is fed into a shuttle that vertically displaces the envelopes to position the envelopes for entering a justifier. The justifier justifies the top edge of the envelopes and conveys the envelopes to a cutter that severs the top edge of the envelopes. A transport conveys the envelopes from the top cutter to an extractor. The extractor opens the edge-severed mail and presents the contents of the envelopes to an operator who manually extracts the contents. The transport conveys the empty envelopes from the extractor to a verifier that verifies that all of the contents have been removed from the envelope before the envelope is discarded.

Abstract: A rack-mountable chassis enclosure, having measurements in at least one dimension greater than the access aperture measurement of the enclosure-supporting rack in that same dimension, and providing additional empty volume into which the enclosed apparatus may move after the chassis has been mounted to the rack, is formed from a rigid panel, which can be mounted to the rack at a position to form a front boundary of the rack-enclosed volume, and at least one pair of opposed enclosure panel members extending substantially perpendicular behind the front panel and at least partially formed of a resilient material, with the maximum dimension between the outermost opposed surfaces of the resilient panel members exceeding the access aperture width of juxtaposed rack enclosure portions through which the enclosure must pass for positioning of the enclosure within the rack, and characterized by inward flexure of the resilient wall members, responsive to pressure thereupon from associated portions of the rack, during ent

Abstract: A multidisk spindle includes a plurality of mounting plates affixed to a shaft for mounting an equal plurality of record disks thereon such that the disks are parallel to each other and perpendicular to the rotational axis of the shaft. The shape of the mounting plates and their dimensions relative to the central apertures of the record disks permit the record disks to be mounted to the spindle after it has been fully assembled. In this way the assembled mounting plates may be abraded to provide plane disk-mounting surfaces which are parallel to each other and perpendicular to the axis of rotation.

Abstract: A magneto-optic disc recording system includes a cylindrical permanent magnet for providing magnetic biasing selectively for the recording and erasing processes. The magnet is positioned radially with respect to the disc rotation, on the opposite side of the disc from, but aligned with, the path of radial motion of the focused recording/erasing light beam. The poles of the magnet are diametrically opposed, and the magnet is axially rotatable. Circular eddy currents, induced by the magnetic field of the magnet on the surface of the rotating disc, generate a second magnetic field which opposes the field of the magnet, thus impelling rotation of the magnet. A stopping mechanism stops the rotation of the magnet with one or the other of its poles adjacent the disc, such that either a recording or erasing magnetic bias is selectively provided to the recording region.